TWI357271B - Method for implementing fast-dynamic channel alloc - Google Patents

Method for implementing fast-dynamic channel alloc Download PDF

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Publication number
TWI357271B
TWI357271B TW093124128A TW93124128A TWI357271B TW I357271 B TWI357271 B TW I357271B TW 093124128 A TW093124128 A TW 093124128A TW 93124128 A TW93124128 A TW 93124128A TW I357271 B TWI357271 B TW I357271B
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TW
Taiwan
Prior art keywords
information
configuration
wtru
channel
database
Prior art date
Application number
TW093124128A
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Chinese (zh)
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TW200520574A (en
Inventor
Xu Fisher Xiaochun
Original Assignee
Interdigital Tech Corp
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Publication date
Priority claimed from US10/744,800 external-priority patent/US7107060B2/en
Priority claimed from US10/747,297 external-priority patent/US7130637B2/en
Priority claimed from US10/747,733 external-priority patent/US7212826B2/en
Priority claimed from US10/750,129 external-priority patent/US7136656B2/en
Priority claimed from US10/750,135 external-priority patent/US7110771B2/en
Application filed by Interdigital Tech Corp filed Critical Interdigital Tech Corp
Publication of TW200520574A publication Critical patent/TW200520574A/en
Application granted granted Critical
Publication of TWI357271B publication Critical patent/TWI357271B/en

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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W16/00Network planning, e.g. coverage or traffic planning tools; Network deployment, e.g. resource partitioning or cells structures
    • H04W16/02Resource partitioning among network components, e.g. reuse partitioning
    • H04W16/10Dynamic resource partitioning
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04BTRANSMISSION
    • H04B17/00Monitoring; Testing
    • H04B17/10Monitoring; Testing of transmitters
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/50Allocation or scheduling criteria for wireless resources
    • H04W72/54Allocation or scheduling criteria for wireless resources based on quality criteria
    • H04W72/541Allocation or scheduling criteria for wireless resources based on quality criteria using the level of interference
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W16/00Network planning, e.g. coverage or traffic planning tools; Network deployment, e.g. resource partitioning or cells structures
    • H04W16/14Spectrum sharing arrangements between different networks
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W24/00Supervisory, monitoring or testing arrangements
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/04Wireless resource allocation
    • H04W72/044Wireless resource allocation based on the type of the allocated resource
    • H04W72/0466Wireless resource allocation based on the type of the allocated resource the resource being a scrambling code
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W74/00Wireless channel access
    • H04W74/04Scheduled access

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Quality & Reliability (AREA)
  • Physics & Mathematics (AREA)
  • Electromagnetism (AREA)
  • Mobile Radio Communication Systems (AREA)

Description

Γ357271 v 六、發明說明: 【發明所屬之技術領域】 本發明大致有關無線通信系統令之無線資源管理’及更 特別有關實施快速動態頻道配置(F-DCA)無線資源管理(rrm) 程序。 【先前技術】 一 無線通信系統中,無線資源管理通常負責使用空中介面 資源。無線資源管理係被用來保證服務品質(Q〇S),以提供有 效使用無線資源,並增加系統容量。無線資源管理包含允許控 制,父換,功率控制及壅塞控制功能。允許控制可被分為使用 者允s午控制及呼叫允許控制(CAC)。使用者允許控制可接受或 拒絕無線傳輸/接收單X(WTRU)所要求之無線資源控制(RRQ 連接。使用者允許控制可接受或拒絕建立或修改無線存取網路 (RAN)中之無線存取承載(rab)。呼叫允許控制(CAC)係被放 置於控制無線網路控制器(C-RNC)。 具有兩動態頻道配置(DCA)功能,慢速動態頻道配置及快 速動^頻道配置(S-DCA,F-DCA)。慢速動態頻道配置可配置 無線資源至胞元’而快速動態頻道配置可配置無線資源至承載 服務。快速動態頻道配置呼叫允許控制(CAC)g能係倉、 配置或改變實㈣狀配置。當實㈣H嫌接收 叫允許控制(CAC)將以胞元中之實體資源可用性及干擾位準 為基礎接受或拒絕該要求。該要求僅於上連及下連呼叫允 制承認它時才可被接受。否則,該要求被拒絕。 二 相證服務品質及最小化干擾,特定快速動態頻道配置 mi控制(cac)演算目前被實施。钟速動態鱗配置吟 =允1控刪CAC)演算先前實施係具有若干限制。限制之 Ξ f 力能之以(其形成快速動態 頻道配置啤叫允許控制(CAC)演算之核心功能)須視信號 4 =被魏鱗資較理魏錢賴。第二紐 允獅釋)象過去實施 魅=ί异型式之兩快速動態頻道配置功能係於穩定狀態 線魏管魏行:―驗背景干擾降低而-用於逸 ϋϊΐ巧騎配置背景干·健序倾㈣藉由重新 才曰^無線貧源(時間槽及編碼)至既存無線承 = 統資源使用於合理位準。快速動態頻道配置ί 料藉由無線麵管理錢動。觸崎景干擾 ; t ^ mm “二觀物_道配置演算之巾具有相當低優先 π曰音快λ動態頻道配置逸出機構係被用來解決使用者之鏈% 既存歷高干擾或不能藉由重新指派無線資源i 務)用者服 服務運可作: 網路ί制㈣較佳運作於控制無線 此说:中,因為一功能輸出可影響另一功能之決定。若這 Γ鋪動,般些功故優先性係為逸 降低ίίίίϊ作1^__)其次運作’而背景干擾 父換(handover)係被用於轉換從一胞元至另一個 呼叫以維持所絲務品f。無線鏈結增添程ϋίί i來i 奸糾^有齡脈絡下Ϊ 木建立即點Β ^之新無線鏈結之實體資源。Γ357271 v VI. Description of the Invention: [Technical Field of the Invention] The present invention relates generally to wireless resource management by wireless communication systems and more particularly to implementing a Fast Dynamic Channel Configuration (F-DCA) Radio Resource Management (RRM) procedure. [Prior Art] In a wireless communication system, radio resource management is usually responsible for using empty inter-layer resources. Wireless resource management is used to ensure quality of service (Q〇S) to provide efficient use of wireless resources and increase system capacity. Radio resource management includes control, parental, power control, and congestion control. Allowable control can be divided into User Allowed Control and Call Admission Control (CAC). The user allows control to accept or reject the radio resource control required by the WTRU (RRQ connection. The user allows control to accept or refuse to establish or modify the wireless access in the Radio Access Network (RAN). The bearer (rab) is placed in the control radio network controller (C-RNC). It has two dynamic channel configuration (DCA) functions, slow dynamic channel configuration and fast motion channel configuration ( S-DCA, F-DCA). Slow dynamic channel configuration can configure wireless resources to cells' while fast dynamic channel configuration can configure wireless resources to bearer services. Fast dynamic channel configuration call admission control (CAC) g can be used to warehouse, Configure or change the real (four) configuration. The actual (4) H acknowledgment call admission control (CAC) will accept or reject the request based on the physical resource availability and interference level in the cell. This requirement is only for uplink and downlink calls. It is accepted when it is admitted. Otherwise, the request is rejected. The quality of the binary certificate service and the minimum interference, the specific fast dynamic channel configuration mi control (cac) calculus is currently implemented. The clock speed dynamic scale configuration 吟 = The 1st implementation of the CAC) calculation has several limitations. Limitation Ξ f The ability to form a core function of the fast dynamic channel configuration of the beer call allowable control (CAC) calculations depends on the signal 4 = Wei Weili compares Wei Qianlai. The second new lion lion release) like the past implementation of the charm = ί variant of the two fast dynamic channel configuration function is in the steady state line Wei Wei Wei line: - the background interference is reduced - for the Yi Qi Qiao riding configuration background dry The order (4) is used to re-establish the wireless poor source (time slot and code) to the existing wireless resources for use at a reasonable level. Fast dynamic channel configuration. Manage money by wireless side. Touching the landscape interference; t ^ mm "Two viewings _ dao configuration calculus has a fairly low priority π 快 快 fast λ dynamic channel configuration escape mechanism is used to solve the user's chain % of the existing high interference or can not borrow By reassigning the wireless resources, the user service can be used as: Network ( (4) Better operation in control wireless This says: because a function output can affect the decision of another function. If this is spread, The priority of the power is to reduce the ίίίίϊ1^__) second operation' while the background interference parent is used to convert the call from one cell to another to maintain the wire. Adding a new ϋίί i to i 纠 ^ ^ 有 脉 有 有 有 有 有 有 有 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立 建立

立有模式,無線鍵結設立程序係被用來建 闕叫或非即時服務之新無線鏈結所需之無線資源。無、I 無線鏈結重新配置程序係被用來附加、修改或 结之任何實體資源。快速動態頻道配置呼叫 允許控制(CAC)糾係制來接收祕求訊息。 吟叫卩時及非即時服務之^速_頻道配置 ^ ϋ贿之最佳實施’且其可克服已知演算之 、…’、預J提供均可滿足上述要求之改良逸出機構及背景干 實施。、進—步預期提供用於無線二 Γ 土 —,置之快速動態頻道配置呼叫允許控制(CAC)演算之 隶么貝轭,其適用於即時或非即時服務,且其可克服已知渖算 之缺點。 【發明内容】 一 明藉由調變/歸類快速動態頻道配置演算功能及使對 廷,演算之核心頻道配置功能之輸入獨立於信號訊息來改善 及最佳化該已知快速動態頻道配置演算。更特別是,信號依賴 (=gnal-dependent)之快速動態頻道配置呼叫允許控制(CAC)演 算先前實施中之特定功能係藉由本發明改變為信號獨立 (signal-independent),使該被改變功能於逸出機構實施中可重 複使用。本發明係以分時雙工方案中之層3脈絡來說明,但亦 可應用而不受其他傳輪模式限制。 第三代無線電信系統目前發展係需要最新及有效無線資 源管理。本發明係提供無線資源管理中之快速動態頻道配置演 算最佳實施。發明性方法可將快速動態頻道配置演算實施調變 及修改為三個處理:事先編碼配置,編碼配置及事後編碼配 置。事先編碼配置處理及事後編碼配置處理中之功能係信號依 賴,而配置處理中之功能係信號獨立。事先編碼配置處理係被 用來說明如何及從何處檢索來自輸入訊息及資料庫之資訊,及 如何準備編碼配置處理所需之輸入。事後編碼配置處理係被用 來決定何種資訊應被儲存於資料庫中,及何種資訊應被提供至 輸出訊息。本發明之被調變功能可藉由即時服務及非即時服務 中之其他無線資源管理演算來重複使用。 本發明係提供用於無線資源管理中之無線鏈結設立程序 之快速,態頻道配置呼叫允許控制(CAC)演算實施。最佳化無 線通k糸統中之快速動態頻道配置呼叫允許控制(cac)演算 方法係包含事先編碼配置處理,信號獨立編碼配置處理及事後 編碼配置處理。事先編碼配置處理包含接收及處理要求訊息及 獲得系統#測及來自集巾式資料庫之資訊。編碼置處理係由 檢查胞元中之可用編碼及產生可用時間槽之時間槽序列開 始。編碼組係被指派至時間槽序列中之可用時間槽,其中成功 指派係為解。干擾信號編碼功率(ISCP)係針對各^解^皮計算, 且具有最低加權干擾信號編碼功率之為解係被選為最= 解。事後編碼配置處理包含將配置資訊儲存於集中式資 及建立回應訊息。 ’、 用Γ無線通㈣統中之快速動態頻道配置糾允許控制 (CAC)方法係以接收及處理要求訊息以啟動呼叫允 (〒)〇功能為開始。節點Β量測,可用時間槽表列及編“ 」糸破檢索自集中式資料庫…組編碼係被配置至可用時間 槽’而配置資訊係被儲存於集中式資料庫 億 編瑪配置處理結果。 係被傳达 本發明提供實施無線資源;I;理t之快速 =之方法,其係藉由如下運作來增加系統^== 管速動態頻道配置逸出機構係被無線資源 碼合物機/魏單元(_)之編 槽干擾,,碼収下連(DL)時間 咖谓錢編碼功率 同值或不同值 門梧值係為設計參數,且可為相 ^節點B達到最大允許傳輸功率。 貫施無線驗練㈣速動細道配置逸岐序之方法 Γ357271 係包含信號獨立編碼配置程序及事後編碼配置程序。事後編碼 配置程序可接收觸動信號,從無線資源控制共享胞元資料庫挥 得無線傳輸/接收單元(WTRU)量測及節點B量測,從集中式^ 料庫獲得胞元配置資訊及無線傳輸/接收單元(WJRU)資訊,決 疋將被重新指派之候選編碼合成傳輸頻道,及將被重新指派之 候選編碼。編碼配置程序可檢查胞元中之可用編碼,檢查候 ,間槽之被傳輸功率,檢查其他時間槽之干擾信號編^功率 (SCP)是否低於候選時間槽者,產生可用時間槽所需之時間桦 序列,指派候選編碼組至時間槽序列中之可用時間槽,其中 功指派係為解;計算各解之干擾信號編碼功率(ISCP);及選 具有最低加權干擾信號編碼功率之解為最佳解。事配 t可將娜戲瓣術_輕=^ 重新配置要求訊息。 Λ ’運 貫施無線通信系統中快速動態頻道配置逸出方 =接收及處理騎信號來開始。無轉輸/接收單元(WTRU) 及即點B量測係被檢索自集中式資料庫,而決定 派之實體資源。編碼組係被配置至可用睥 B 新才曰 =:針締解t。實 达匕3此無線傳輸/接收單元(WTRU)之新配置資’、 供t施,資源管理中快速動翻、道配置背景 背景干擾降低程序之方法係包t事序態 月以h觸動信號;從無線資源 ,單元(胸)量測及節點B量== 得胞认無線傳輸/接收單權TRU) 之候選時間槽(-用於上連方向而一^貝破重新指派 指派之候選編碼。編及決定將被重新 檢查候料敝 8 列;指派候選編碼組至時間槽序列中之可用時間槽,其中成功 指,係為解;計算各解之干擾信號編碼功率(ISCP);及選擇具 有最低加權干擾信號編碼功率之解為解。事後編碼配置程序^ 將重新配置資訊儲存於集中式資料庫並建立實體頻道重新配 置要求訊息。 實施無線通信系統中快速動態頻道配置背景干擾降低程 序之方法係包含事先編碼配置處理,信號獨立編碼配置處理及 事後編碼配置處理。事先編碼配置處理係以接收計時觸動信號 土開始。系統量測係被檢索自集中式資料庫。將被重新指派丄 貫體資源係基於優質數來決定。編碼配置程序係以檢查胞元中 之可用編碼組及產生用於可用時間槽之時間槽序列為開始。編 碼$係被指派至時間槽序列中之可用時間槽,其中成功指派係 為巧。干擾#號編碼功率(ISCP)係被用來計算各解且具有最低 加權干擾信號編碼功率係被選擇為最佳解。重新配置^訊係被 儲存於集巾式資料庫。包含配置資訊之實㈣道重新配置要求 訊息係被傳送。 本發明係^供貫施無線資源管理中之無線鏈結附加程序 ’快速動態頻道配置呼叫允許控制(CAC)演算。實施無線通信 系統中之快速動態頻道配置呼叫允許控制(CAC)演算方法係 包含事絲舰置處理,錢社編碼置處理及事後編碼配 置處理。事先編碼置處理包含接收及處理無_結附加要求 =息及從集中式資料庫檢索系 '统資訊。編碼配置處理係包括檢 —胞兀中之可用編雜;產生時間槽相;指派編碼組至時間 槽序列中之可用時間槽,其令成功指派係為解;計算各解之干 ,信號網解(IS〇>);簡擇具有最低加權預信號編碼功 =(ISCP)之巧為最轉。事後編褐配置處理包含將配置資訊館 存於集中式資料庫中及建立無線鏈結附加回應訊息。 用於#線通信系統t之無線鏈馳加之快速動態頻道配 置=叫允雜馨AQ演算杨細魏錢賴附加要求 訊息以啟動呼叫允許控制(CAC)功能為開始。要求訊息係被處 理 ’且可㈣間槽刻及編碼組表列係被檢索自集中式資料 抽=碼組係被配置韻胞元中之可科_,而配置資訊係 ϊϊί於針式㈣庫。無__純應訊息餘傳送編碼 配置處理結果。 本發明係提供實施無線資源管理中之無線鏈結重新配置 2之快速動態親配置呼叫允許㈣(CAC)演算。實施無線 ^,系統中之快速動態頻道配置呼叫允許控制(CAC)演算方 =係包含事先編碼配置處理,信號獨立編碼配置處理及事後編 置處理。事先編置處理包含接收及處理要求訊息及從 本中式資料庫檢索系統資訊。編碼配置處理係包括檢查胞元中 之可用編碼組,產生時間槽序列;指派編碼組至時間槽序列中 =可用時間槽,其中成功指派係為解;計算各解之干擾信號編 二f f (ISCP);及選擇具有最低加權干擾信號編碼功率之解為 最佳解。事後編碼配置處理包含將配置資訊儲存於集中式資料 庫中及建立回應訊息。 、、用於無線通信系統中之無線鏈結重新配置之快速動態頻 道配置呼叫允許控制(CAC)演算方法係以接收要求訊息以啟 動呼叫允許控制(CAC)功能為開始。要求訊息係被處理,且可 用時間槽表列及編碼組表列係被檢索自集中式資料庫。編碼組 係被配置至可用時間槽’而配置資訊係被儲存於集中式資料 庫。具編碼配置處理結果之回應訊息係接著被傳送。 本發明可以下列較佳實施例說明及附圖而得到更詳細了 解。 【實施方式】 無線鏈結設立之呼叫允許控制(CAC) 恶線鏈結設立程序102之快速動態頻道配置呼叫允許控 制(CAC)演算概觀100係被顯示於第一圖。快速動態頻道配置 呼叫允許控制(CAC)演算1〇2主要功能係包含三部份:事先編 碼配置處理1〇4,編碼配置處理1〇6及事後編碼配置處理1〇8。 事先編碼配置處理104可從無線鏈結設立要求訊息no讀取無 1357271 ί單私^则量測’從無線資源控制共享胞元資料 庫112 5貝取卽點B置測,及替編碼配置準備輸 次 源管理,,料,116_之可用時間槽表列及來自(#“3 (OAM)热線資源管理表資料庫η4之編竭组表。'、、’又 編:工,處理,可檢查紋t之饥柄,產生時間槽 序列’找福碼組之取轉(指派編碼財; 槽),及從無線資源管理胞元資料庫116之編:ί 卞式編碼。事後編碼配置處理108係負責立以 =(=TRU)於無㈣源純鱗傳輪她料 中,紀錄魏置實義翁鱗f崎駐 ΐ^(ΓΤΙιυ)貢料庫118中,紀錄實體頻道參數及功率控Ξ 舅訊於無線鏈結設立回應訊息12〇中。 工】 除了處理及資料賴之資敝換,資败換亦直接發生於 =之間。無線傳輸/接收單元(WTRU)量測,節點生胞 料間縣列,特定#料鱗之編顿表取益線傳 j、接=兀(WTRU)性能資訊’係從事先編碼配置處理 ^至編舰置處理胁實體親魏(時_麵及= :ί2ΐοΐ編碼)係從編碼配置處理106被傳送至事後編碼 1本發明中,快速動態頻道配置呼叫允許控制 曾 键炎之快速動態頻道配置0乎叫允許控制(CAC)演算功能係^ 兩^力能:輪人為信號訊息部份之信號依賴功能,及又 ^域訊息之域獨立魏。分驗號依賴 ^ 目Λϊϊ:錢巧魏之*敎驗。 能=:=£Τ= 理乂〇!之功能係為信號依賴功 ,對地、.扁碼配置處理106之功能係為信號獨立功能。鹿 置理Λ06之功能可藉由如交換,快逮動態頻道ί 快連動態頻道配置背景干擾降低演算之其他益 、’貝,官理貫施中之其他程序來重複使用。 ’、*、、、 無線鏈結設立之快速動態頻道配置呼叫允許控制(CAC) 1] Γ35727ΙIn the established mode, the wireless bonding setup procedure is used to build the wireless resources required for a new wireless link for barking or non-instant service. The None, I Wireless Link Reconfiguration procedure is used to attach, modify, or tie any physical resource. Fast Dynamic Channel Configuration Call Allows Control (CAC) Control to receive secret messages.吟 卩 及 and non-instant service ^ speed _ channel configuration ^ the best implementation of bribery 'and it can overcome the known calculus, ...', pre-J provides improved escape mechanism and background Implementation. Further, it is expected to provide a fast dynamic channel configuration call admission control (CAC) calculus for wireless terrestrial, which is suitable for immediate or non-instant service, and which can overcome known calculations. The shortcomings. SUMMARY OF THE INVENTION The present invention improves and optimizes the known fast dynamic channel configuration calculation by modulating/classifying the fast dynamic channel configuration calculation function and making the input of the core channel configuration function of the court and calculation independent of the signal message. . More particularly, the signal-dependent (=gnal-dependent) fast dynamic channel configuration call admission control (CAC) calculus of a particular function in a previous implementation is changed to signal-independent by the present invention, such that the changed function is The escape mechanism can be reused in the implementation. The present invention is illustrated by layer 3 in the time division duplexing scheme, but is also applicable without being limited by other transmission modes. The current development of the third generation of wireless telecommunications systems requires up-to-date and efficient wireless resource management. The present invention provides an optimal implementation of fast dynamic channel configuration algorithms in wireless resource management. The inventive method can modulate and modify the fast dynamic channel configuration algorithm into three processes: pre-coding configuration, encoding configuration, and post-coding configuration. The function signals in the pre-coding configuration processing and the post-coding configuration processing depend on each other, and the functions in the configuration processing are independent. The pre-coded configuration process is used to explain how and where to retrieve information from the input message and database, and how to prepare the input required for the code configuration process. Post-coding configuration processing is used to determine what information should be stored in the database and what information should be provided to the output message. The modulated functionality of the present invention can be reused by other wireless resource management algorithms in both immediate and non-instant service. The present invention provides a fast, state channel configuration call admission control (CAC) calculus implementation for wireless link setup procedures in wireless resource management. The fast dynamic channel configuration call admission control (cac) calculation method in the optimized wireless communication system includes pre-coding configuration processing, signal independent coding configuration processing, and post-coding configuration processing. The pre-coding configuration process includes receiving and processing the request message and obtaining the system# measurement and information from the towel-type database. The encoding process begins by examining the available codes in the cell and the sequence of time slots that produce the available time slots. The code group is assigned to the available time slot in the time slot sequence, where the success assignment is a solution. The Interference Signal Coding Power (ISCP) is calculated for each solution, and the lowest weighted interference signal coding power is selected as the most solution. Post-coding configuration processing involves storing configuration information in a centralized resource and establishing a response message. The fast dynamic channel configuration correction control (CAC) method used in the wireless communication system begins with receiving and processing the request message to activate the call admission function. Node Β Measure, use time slot table list and edit “ ” to retrieve the self-collected database... The group code is configured to the available time slot ′ and the configuration information is stored in the centralized database . It is conveyed that the present invention provides a method for implementing a wireless resource; I; a fast = method of increasing the system by the following operation ^== pipe speed dynamic channel configuration escape mechanism is a wireless resource code machine / The Wei unit (_) is the slot interference, and the code receives the connection (DL) time. The money coding power is the same value or the different value threshold is the design parameter, and the maximum allowable transmission power can be reached for the node B. Through the wireless tampering (four) quick-moving fine-tuning configuration method Γ 357271 contains the signal independent coding configuration program and the post-coding configuration program. The post-coding configuration program can receive the touch signal, and the wireless transmission/receiving unit (WTRU) measurement and the node B measurement are obtained from the radio resource control shared cell database, and the cell configuration information and the wireless transmission are obtained from the centralized library. / Receive Unit (WJRU) information, which is determined by the candidate coded composite transmission channel to be reassigned, and the candidate code to be reassigned. The code configuration program can check the available codes in the cell, check the transmitted power of the inter-slot, check whether the interference signal coding power (SCP) of other time slots is lower than the candidate time slot, and generate the available time slot. The time birch sequence assigns the candidate code group to the available time slot in the time slot sequence, wherein the work assignment is a solution; the interference signal coding power (ISCP) of each solution is calculated; and the solution with the lowest weighted interference signal coding power is selected as the most Good solution. The t match can be used to reconfigure the request message. Λ ‘The fast dynamic channel configuration escape party in the wireless communication system = Receive and process the ride signal to start. The no-transfer/receive unit (WTRU) and point-to-point B-measurement systems are retrieved from the centralized database and the assigned physical resources are determined. The code group is configured to be available 睥 B New 曰 =: The needle is set to t.达达匕3 This new WTRU's new configuration, 'for t, resource management, fast flip, track configuration background background interference reduction program method package t order state month with h touch signal Candidate time slot from radio resource, unit (thoracic) measurement and node B quantity == cell-receiving radio transmission/reception single-right TRU) (-for the uplink direction and the candidate coding of the re-assignment assignment) The code and decision will be re-examined for the queue 敝8; the candidate code group is assigned to the available time slot in the time slot sequence, where the success is the solution; the interfering signal coding power (ISCP) for each solution is calculated; The solution with the lowest weighted interference signal encoding power is the solution. The post-coding configuration program ^ stores the reconfiguration information in the centralized database and establishes the physical channel reconfiguration request message. Implements the fast dynamic channel configuration in the wireless communication system. The method includes pre-coding configuration processing, signal independent coding configuration processing, and post-coding configuration processing. The pre-coding configuration processing system starts with receiving the timing trigger signal. The system measurement system is retrieved from the centralized database. The re-assignment of the resource is determined based on the quality number. The code configuration program checks the available code groups in the cell and generates the time for the available time slot. The slot sequence is the start. The coded $ is assigned to the available time slot in the time slot sequence, where the successful assignment is clever. Interference #Coded Power (ISCP) is used to calculate the solution and has the lowest weighted interference signal coding power. The system is selected as the best solution. The reconfiguration system is stored in the towel database. The real information (4) channel reconfiguration request message is transmitted. The present invention is for wireless communication in wireless resource management. The link add-on program 'fast dynamic channel configuration call admission control (CAC) calculus. Implementing the fast dynamic channel configuration call admission control (CAC) calculus method in the wireless communication system includes the transaction of the ship, the processing of the code, and afterwards Coding configuration processing. The pre-encoding processing includes receiving and processing no-send additional requirements = information and retrieval from the centralized database. The processing system includes the available hashes in the test cell; generating the time slot phase; assigning the code group to the available time slot in the time slot sequence, which makes the successful assignment system a solution; calculating the solution of each solution, the signal network solution ( IS〇>); The choice has the lowest weighted pre-signal coding power = (ISCP) is the most accurate. Post-embedding brown configuration processing involves storing the configuration information in a centralized database and establishing a wireless link additional response message. The fast dynamic channel configuration for the wireless communication chain of the #线通信系统 t = called Yunxin AQ calculus Yang Xiwei Qian Lai additional request message to start the call admission control (CAC) function. The request message is processed ' And (4) the slot engraving and coding group list is retrieved from the centralized data pumping = code group is configured in the rhyme cell, and the configuration information system is in the pin (4) library. No __ pure response message transmission coding configuration processing result. The present invention provides a fast dynamic pro-configuration call admission (C) calculation that implements wireless link reconfiguration 2 in radio resource management. To implement wireless ^, the fast dynamic channel configuration call admission control (CAC) operator in the system includes pre-coding configuration processing, signal independent coding configuration processing, and post-processing processing. The pre-programming process includes receiving and processing request messages and retrieving system information from the Chinese-style database. The encoding configuration processing includes checking the available encoding groups in the cell, generating a time slot sequence; assigning the encoding group to the time slot sequence = available time slot, wherein the successful assignment is a solution; calculating the interference signal of each solution is ff (ISCP) And selecting the solution with the lowest weighted interference signal coding power as the optimal solution. Post-coding configuration processing involves storing configuration information in a centralized repository and creating response messages. The Fast Dynamic Channel Configuration Call Admission Control (CAC) algorithm for wireless link reconfiguration in a wireless communication system begins by receiving a request message to initiate a Call Admission Control (CAC) function. The request message is processed and the time slot table and the code group list are retrieved from the centralized database. The code group is configured to the available time slot' and the configuration information is stored in the centralized database. A response message with the result of the encoding configuration process is then transmitted. The invention will be described in more detail in the following description of the preferred embodiments and the accompanying drawings. [Embodiment] Calling Allowance Control (CAC) of the Wireless Link Setup The Fast Dynamic Channel Configuration Call Admission Control (CAC) Logic Overview 100 of the Badline Link Setup Procedure 102 is shown in the first figure. Fast Dynamic Channel Configuration Call Admission Control (CAC) Logic 1〇2 main functions consist of three parts: pre-coding configuration processing 1〇4, encoding configuration processing 1〇6, and post-coding configuration processing 1〇8. The pre-encoding configuration process 104 can read from the wireless link setup request message no no 1357271 ί single private ^ then measure 'from the wireless resource control shared cell database 112 5 卽 卽 置 置 置 置 置 , , , 置 置 置 置Secondary source management, material, 116_ available time slot table list and compiled table from (#"3 (OAM) hotline resource management table database η4. ',, 'edited: work, processing, can Checking the hunt of the tune, generating a time slot sequence 'Finding the code group's transfer (assignment code; slot), and from the radio resource management cell database 116: 卞 编码 code. Post-code configuration process 108 The department is responsible for the vertical (======================================================================================================舅 于 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在 在Inter-county county, specific #料Scale's compiled table to take advantage of the line j, then = 兀 (WTRU) performance information ' The encoding configuration processing ^ to the warship processing threat entity pro-wei (time_face and = : ί2ΐοΐ encoding) is transmitted from the encoding configuration processing 106 to the post-coding 1 in the present invention, the fast dynamic channel configuration call allows to control the rapid dynamics of Zeng Jianyan Channel configuration 0 is called the admission control (CAC) calculus function ^ two power can be: the signal-dependent function of the round signal signal part, and the domain of the domain information is independent Wei. The inspection number depends on ^ 目: Qian Qiao Wei's * test. Can ===£Τ= 乂〇! The function is signal dependent, the function of the ground, the flat code configuration processing 106 is signal independent function. The function of the deer Λ 06 can be borrowed By, for example, exchange, fast capture dynamic channel ί fast dynamic channel configuration background interference reduction calculus other benefits, 'Bei, officially applied to other programs to reuse. ', *,,, wireless link establishment rapid dynamics Channel Configuration Call Admission Control (CAC) 1] Γ35727Ι

演算功能之流程圖係被顯示於第二a_c及三a七圖。第二a_c 圖顯示無線鏈結設立之快速動態頻道配置呼叫允許控制(CAC) 演算之主要介面功能200。功能200係藉由獲得無線鏈結設立 要求訊息(此後被稱為”要求訊息,’;步驟202)及從要求訊息擷 取參數來開始(步驟204)。要求訊息係包含編碼合成傳輸頻道 (CCT^:H)資訊’專用頻道(DCH)資訊,具有或沒有無線傳輸/ 接收單元(WTRU)量測之無線鏈結資訊及無線傳輸/接收單元 (WT^J)性能資訊。被擷取自要求訊息之參數係包含無線傳輸/ 接收單元(WTRU)識別,胞元識別,無線鏈結識別,及無線傳 輸/接收單元(WTRU)性能資訊(每時間槽最大實體頻道數及每 框最大時間槽數)。 無線二身源管理胞元資料庫之入口識別係被獲得(步驟 2〇6)。接著,決定包含下連干擾信號編碼功率(DL lscp)之無 線傳輸/接收單元(WTRU)量测是否被包含於要求訊息中(步驟 208)。若無線傳輸/接收單元(wjru)量測不被包含於要求訊息 中,則檢查以決定是否所有專用頻道均為非即時;步驟 =0^ 212)。若所有專用頻道均為即時,職態旗標係被設定 標不為失敗情況(步驟214)且功能終止(步驟216)。失敗情況意 指無線傳輸/接收單元(WTRU)無實體資源可用。應注咅所有僅 =^專_道鮮纽如。#沒有鱗倾 (WTR+U)篁測及所有專用頻道均為即時時係為失敗情況。 若所有專_道均為料時(步驟212),貞,m =道係被配置用於目前編碼合成傳輸頻道(CCTrCH)(步驟 ^ 頻道被配置後’係決定資源配置是否成功(步驟220)。 =源配置不成功,則狀態旗標係被設定標示為失 ,2=)且功能,(步聲216)。若資源配置成功(步·‘,(則 …線傳輸/接收單tg(WTRU)入口係被建立且益線傳 罩 係被紀錄於無 (步驟222)。被紀錄至無線傳 輸/接收早兀(WTRU)入口之資訊係包含無線傳輸/接收單元 12 1357271 (y^RU)識別’交易識別’上連無線傳輸/接收單元(胃_性 能^訊,下連無線傳輸/接收單元(WTRlWi能資訊,及無線鏈 結資訊。上連無線傳輸/接收單元(WTRU)性能資訊包含每框最 大時T槽數及每時⑽最大上連實賴道數。下連無線傳輸/ ,收單元(WTRU)性能資訊包含每框最大時間槽數及每時間槽 最大下連實體頻道數。無騎結資訊包含無賴結制,胞元 識別’上連編碼合成傳輸頻道資訊及下連編碼合成傳輪頻道資 訊。編碼合成傳輸頻道(CCTrCH)資訊包含編碼合成傳輸頻道 (CCTrCH)識別’編碼合成傳輸頻道(CCTrCH)狀態’編碼合成 ^輸頻,(a:TrCH)信號對干擾比率(SIR)目標,保證資料速 干二允許資料速率,及專用實體頻道(DPCH)資訊。專用實體 頻道為訊包含時間槽表列,訓練序列(midamble)移位及叢發類 =二傳輸格式編碼指標(TFCI)呈現及編碼資訊。編碼資訊包含 式編碼’編碼朗狀態’專用實㈣道識別及編碼信號對 干擾目標。 ,著’實體頻道資訊及功率控制資訊係被放入無線鏈結設 訊息(步驟224),狀態旗標係被設定標示成功情況(步驟 夕且功能終止(步驟216)。實體頻道資訊包含各時間槽中 ^間槽麵及親式編碼。時_魏包含$㈣期及重複 控师訊包含上連目標信麟比率,最大上連 ,擾比率’最小上連信號對干擾比率,啟始下連傳輸功 外、1連傳輸功率,及最大允許上連傳輸功率。本發明- ^自二結構係觀於要求訊纽回應訊息,因為這兩 個訊^係包含大量共用資訊。 (步驟右if訊息中具有可用無線傳輸/接4欠單元(WTRU)量測 求翊自^則無線傳輸/接收單元(WTRU)量測係被檢素自要 料點B量測係被獲得自無線錢、控制共享胞元資 B 節點3量測包含共用量測及專用量測。節點 率:、二m *連干擾錢編碼辨及Τ連傳輸載波功 "*專用量測包含下連傳輸編碼功率。.快速下連編碼 13 二if輸親魏_(步驟23G) ’且獲得雜選擇編碼合成 頻道(CCTrCH)之服務類型(步驟232)。若服務類型為即時 ^ ,驟234),則胞元中之可用時間槽係被決定(步騾236)。 二無,槽可用(麵 ’脈態賴係被設定標示為失敗 『月况(v騍214)且功能終止(步驟216)。 曾若有時間槽可用(步騾238),則被要求之資料速率係被計 异(j 240)。被計算資料速率之編碼紐係被獲得(步驟242), J目賴碼合成傳輸頻道(CCTrCH}之實體頻道(時間槽及編碼〕 中'破配置,而最佳解若被找到則被紀錄之(步驟244)。步驟244 中之配置功能係以以下第三a及三1)圖做更詳細討論。若資源 =失敗(步驟246) ’則狀態旗標係被設定標示為失敗情況(步 驟214)且功能終止(步驟216)。 右貧源配置成功(步驟246),則決定是否具有將被檢查之 2編媽合成傳輸頻道(步驟248)。若資源配置成功驟 、則決定是否具有將被檢查之附加編碼合成傳輸頻道(步 : 。若具有將被檢查之附加編碼合成傳輸頻道,則下一個 j合成雜賴(CCTYCH)倾騎(錢25G),而功能繼續 驟231。若無將被檢查之附加編碼合成傳輸頻道(步驟 —、則決疋上連編碼合成傳輸頻道是否已被檢查(步驟252)。 =上連編碼合雜輸縣尚未被檢查,㈣—上連編碼合成傳 輸頻這係被選擇(步驟254),而功能繼續於步驟232。若所有 ^編碼合靖輪麵均已财慮(麵252) 能如 繼績於步驟222。 絲為非即時(步驟234),則胞元中之可用時間槽 ί ίί f )。若無可料_(步驟258),驗態旗標 係被歧疋標不為失敗情況(步驟214)且功能終止(步騾216)。 士次若具有可科間槽(步驟258),則義於非即時服務之所 貝料速率係被決定(步驟260),且最高資料速率係被選擇(步 262)。被選擇資料速率之編碼組係被獲得(步驟264),現行 編石馬合成傳輸頻道(COYCH)之正常暫時專用親係被配置, 1357271 而最佳解若被找到則被紀錄(步騾266)。應注意步驟244及266 本質上相同;非即時服務中,專用頻道係為暫時。 若資源配置失敗(步驟268),則決定是否具有將被檢查之 附加資料速率(步驟270)。若無將被檢查之其他資料速率,則 狀態旗標係被設定標示為失敗情況(步驟214)且功能終止(步驟 216)。若資源配置成功(步驟268),則功能如上述繼續於步驟 248 〇 ' 應注意步驟230 ’ 252及254中,任一方向(下連或上連) 可首先被執行。如上述,下連方向係優先於上連方向被檢查。 功能200將以相同方式操作,否則上連將優先下連被檢查。 —步驟244及266係有關呼叫快速動態頻道配置演算來配置 貝體頻道。此核心功能300係為信號獨立且以第三^及b圖做 說明。功能300係以接收編碼組及可用時間槽作為輸入而開始 (步驟302)。第一編碼組係被選擇(步騾3〇4),且決定編碼組是 否可用於胞元中(步驟306及308)。若該被選擇編碼組於胞元 中不可^ ’則決定是否具有將被檢查之更多編碼組(步驟 31〇)。若具有更多編碼組,則下一個編碼組係被選擇(步驟 312) ’而功能繼續於步驟3〇6。若無編碼組,則此標示失敗情 ^ ’狀顏標聽設定標示鱗(步驟314)且魏終止(步驟 316) 〇 胁ϊϊϊί?編物㈣元柯渺驟3G8),職碼合成 =頻^(CCTrCH)中之編碼組所需之資源單元係被計算(步驟 祐曹序列係被產生(㈣32〇),且第一時間槽序列係 322)。下連或上連方向接著被決定(步驟350)。若 岸ί丨中則嘗試指派現行下連編碼組進人現行時間槽 3^0 間槽(步驟聲若鍵結方向為上連(步驟 用iH行上連編碼組進入現行時間槽序列中之可 可被;J^,B丰354)。本發明替代實施例中(無圖示),步驟350 適化。* 乂驟352及354可被結合為單步驟來提供附帶最 15 嘗試指派現行編码組至現行铜槽糊巾 (步驟说,3叫後,係決定指派解是否已被找到(步曰 標示編碼組被成功指派至現行時_序列中之可) 解被找到’麟之干賴碼轉(lscp)^蚊, 率之解係被視為最佳解且被紀錄、(步 驟358)三右%沒有被找到,則步驟358被跳過。 接著,決定是否具有任何將被考慮之附加時 驟360)。若具有附加時間槽序列,則下一個時間槽序曰歹 擇(步驟362),而功能繼續於步驟35〇。若無附加時間槽 + 驟360) ’則決定最佳解是否已被找到(步驟364)。若最佳= 有被找到,則功能繼續於呼叫魏中之點c(也就是步驟 „功能)。若最佳解被找到,聽祕標係被設定標示 成功指派(步驟366)且功能終止(步騾316)。 ’、 快速動態頻道配置呼叫允許控制(CAC)演算之 中1功能352及354係為信號依賴。本發明中,這兩個功能係 能。被用於這兩個功能之相關功能亦被 修改成為化唬獨立功能。因為功能352,354之輸入係 信,訊息(如輸入訊息所以功能352,354可被其他益線資 應注意上述快速動態頻道配置呼叫允^控制 (C A C)凟异貫施係為例證且可被進一步最佳化。 逸出 快速動態頻道配置逸出程序4〇2之概觀4〇〇係_示於第 動態頻道配置逸出程序402之主要功能係包含三個 二=走事先編碼配置處理404,編碼配置處理4〇6及事後編碼 处理4〇8。事先編碼配置處理404係開始於接收量測觸動 二、二ί^。具ί兩個量測觸動信號,無線傳輸/接收單元^乃^) :須^,及節點]3量測觸動信號。無線傳輸/接收單元(wtru) ^測^ 3包含無線傳輸/接收單元(WTRU)識別及時間槽數表 歹,而節點B量測觸動賴包含時間槽數。遶出程序開始於 1357271 接收無線傳輸/接收單元(WTRU)量测信號或節點B量洌觸動 信號。 事先編碼配置處理404可從無線資源控制共享胞元資料 庫412獲知卽點B置測及無線傳輸/接收單元(wjru)量測,從 ,線資源管理胞元資料庫416獲得皰元配置資訊,從無線資源 管理無線傳輸/接收單元(WTRU)資料庫418獲得無線傳輸/接 收單元(WTRU)性能資訊,決定將被重新指派之編^合成傳輸 頻迢(CCTrCH),計算無線傳輸/接收單元(WTRU)路徑損失, 決定將被重新指派之候選編碼組,及獲得可用時間槽之表列。 事先編碼配置處理4〇4可準備用於編碼配置處理4〇6之輸入。 編碼配置處理406可檢查胞元中之編碼可用性,檢查候選 Γ二1f f傳輸取)功率’檢查其他_狀干擾錢編ί功率 )疋否低於該候選時間槽之干擾信號編碼功率(ISCp),產 生J用時間槽之時間槽序列,搜尋時間槽序列中之編碼組之指 ^解(藉,指派候選編碼組至可用時間槽),及選擇具有最低加 權干擾k號編碼功率之解為最佳解。事後編碼配置處理4〇8係 ^責將最新配置實體頻道紀錄於無線資源管理無線傳輸/接收 ^(WTRU)資料庫418巾’及將實體頻道資訊填入實體頻道 重新配置要求訊息420中。 除了處理及資料庫間之資料交換,資料交換亦直接產生於 ^理間。無線傳輪/接收單S(WTRU)量測,節點B量測,胞元 槽表列’候選編瑪組及無線傳輸/接收單元 性犯貝訊係從事先編碼配置處理404被傳送至編碼配 置處理4〇6。實體頻道資訊(各時間槽中之時間槽表列及頻道式 編碼)係從編碼配置處理4G6被傳送至事後編碼配置處理4〇8。 本發明中’快速動態頻道配置逸出演算4〇2之功能係被調 兩巧:力能:輸人輕賴息部份之信號依賴功能,及輸入 Ϊ ΐΐ信號訊息之信號獨立功能。11分信號依賴功能及信號獨 乂 ΐ之目的係為増加信號獨立功能之重複使祕。事先編碼 -己地理4〇4及事後編竭配置處理—之功能係為信號依賴功 17 1757271 能。相對地,編碼配置處理406之功能係為信號獨立功能。信 就獨立功月b之重複使用性係南於信號依賴功能之重複使用 f生。本貝上為仏说依賴之特疋功能係於本發明較佳實施例中從 k號依賴被轉換為彳纟號獨立’藉此增加被轉換功能之重複使用 性。 快速動態頻巧配置逸出程序之功能流程圖係被顯示於第 五a,b及六圖。第五a及b圖係顯示主逸出演算5〇〇之流程 圖^係係藉由接收來自觸動信號之輸入而開始(步驟5〇2)β無 線資源管理胞元資料庫之入口識別係從無線資源管理胞元g 料庫被檢索(步驟504)。無線傳輸/接收單元(貿1111;)量測及節 點B量測係從共享胞元資料庫被檢索(步驟5〇6)。具有鏈結問 ,之時間槽鏈結方向係被決定(步驟5G8),而具有最差鍵結問 題之時間槽係被定位。 將被重新私派之候選編碼合成傳輸頻道係基於逸出機 接5ω)。逸出程序被時間槽中無線傳輸/ tru之過自下連干號編碼轉觸動時,此時 純衫(魏U)編碼合成傳輸頻道 玄派之候選者。下連干號編碼功 3猎由無線傳輸/接收單元(WTRU)來量測,且此例 程序ί被無轉輪/魏單元(WTRU)量聽號觸動。 =加上路徑損失值而為將被重新指派之候i者。 輸師力麵树,具有編碼之編碼合成傳輸ί 節點b來量tj B功率均藉由 號來觸動。、5 L出程序係藉由節點B量測信 炉孫^^編碼合成傳輸頻道被找到(步驟512),職能爐 標係破_物顺(邮1物程序終止 13.57271 ^候選編絲成傳輸頻道被找到(步驟5i2) 係從無線資1 原管理無線傳輸^收單元 之路柯步驟518) °鱗傳輸/接收單元(WTRU) έ且俜f (步驟52G) ’且將被重新指派之候選編碼 贫編槽之後基於被给定時間槽之被更新干擾信 傳輸功率是否小於傳輪功率門二決^決》 二艺,號編碼功率(ISCP)門插及傳輸功率門禮係為設計參 碼組被重新指派(步驟524),則狀態旗標係被設定 示不失敗彳爿況(步帮514)且該程序終止(步驟516)。 # s右具有被重新指派之編碼組(步驟524),則該被重新指派 二石’’、、之可用付間槽係從中央式資料庫被檢索(步驟526)。若無 了用時間;ff(步驟528) ’貞懷態旗標係被設定標示失敗情況(步 騾=4)且該程序終止(步驟516)。若有可用時間槽(步驟528), 則κ體頻道(時間槽及編碼)係被配置給編碼合成傳輸頻道 (CCTrCH)(步驟 530)。 、 _若實體頻道配置失敗(步驟532),則狀態旗標係被設定標 不失敗情況(步驟514)且該程序終止(步驟516)。若資源配置成 功(步驟532) ’則新實體頻道資訊係被紀錄於無線資源管理無 線傳輸/接收單元(WTRU)資料庫(步驟534)。只要最佳解被找 =,則資源配置(步驟532)係被視為成功。實體頻道資訊係包 =專用實體頻道時間槽資訊’重複期間值及重複長度值。專用 貫體頻道時間槽資訊係包含時間槽數,訓練序列移位及叢發類 型’傳輸格式編碼指標呈現及編碼資訊表列。編碼資訊係包含 頻道式編碼’編碼使用狀態,專用實體頻道識別及編碼信號對 干擾目標。 實體頻道資訊亦被放置於實體頻道重新配置要求訊息中 (步竭536) ’狀態旗標係被設定標示成功情況(步驟538)且該程 序終止(步驟516)。實體頻道重新配置要求訊息係包含以下資 19 控制無線網路控制器識 輸頻=訊,及下連傳上連編碼合成傳 實i^、f=係有㈣叫快速_頻道配置逸出程序來配置 3!; Γ能。此核心功請係為信號獨立且= S?=== :ns 606及608)(步::中;中是:具有該編碼組(步驟 將被檢查中之編破碼 =口 = 6^’。iimf,魏(步驟612)且魏_於步驟 標係被設定以?驟驟:)第則此 316 ;第三b圖)。鄉,“ b圖)且該功能終止(步驟 設定為:’二;'。=;為:==,型係: 驟。若快速動態頻道配置類型為:ESCAPE”,則候;^= f被設定標示無解(步截314)且該功^终止(步;16; i' 擾信號編,功率(ISCPX㈣624)。若無其他具有較低干擾件 b圖)〇 20 1357271 若具有較低干擾信號編碼功率(ISCP)之另一時間槽(步驟 626)或若快速動態頻道配置類型為"rbsexup"(步驟618),則 ,碼合成傳輸頻道(CCTrCH)中之編碼組所需資源單元係被計 异^步騾640)。時間序列係被產生用於可用時間槽(步驟642), 且第一時間序列係被選擇(步驟644)。如上述第三b圖,該方 法繼續於步驟350。若快速動態頻道配置類型為"背景,,所執行 之步驟(步驟618)係被討論如下。 背景干擾降低 -快速動態頻道配置背景干擾降低程序702之概觀7〇〇係被 顯示,第七圖。快速動態頻道配置背景干擾降低程序7 〇 2之主 要功此係包含二部份:事先編碼配置處理7〇4,編碼配置處理 706及事後編碼配置處理7〇8。事先編碼配置處理7〇4係開始 ^接收背景計時觸動信號71〇。事先編碼配置處理7〇4可獲得 f線資源管理胞it資料庫716之人口識別,從無線龍、控&共 j元資料庫712獲得節點B量測,決定將被重新指派之編 成傳輸頻道(CCTrCH),計算無線傳輸/接收單元(WTRU) ,徑損失,決定將被重新指派之候選時間槽(一上連時間槽及 二I連時間槽),從無線資源管理胞元資料庫<710檢索將被用 :重新指派之可用時間槽之表列,決定兩方向中將被重新指派 次f選編碼組,從無線資源管理無線傳輸/接收單元(WTRU) ^料庫418獲得無線傳輸/接收單元(WTRUy&能資訊,及 “·、線傳輸/接收單元(WTRU)路徑損失。 、 # 編碼配置處理706可檢查胞元中之編碼可用性,檢查候 ^槽之傳輸㈣功率’搜尋時間槽序列之編碼組之指派解(藉 ^辰候選編碼組至可用時間槽),及選擇具有最低加權干^ ^編碼功率(ISCP)之解為最佳解。事後編碼配置處理7〇8係 二貝,麵配置實體親紀躲無線資源管理無線傳輪/接收 重,絲雜贼:#轉入實體頻道 21 f·» 了357271 除了處理及資料庫間之資料交換’資料交換亦直接產生於 處理間。無線傳輸/接收單元(WTRU)量測,節點B量測,胞元 中之可用時間槽表列’候選編碼組及無線傳輸/接收 (WTRU)性能魏赌事先編舰置處理被傳 置處理706。實體頻道資訊(各時間槽 編碼)係從編碼配置處理706被傳送至事後編碼配置處理7〇8。 本發明中,快速動態頻道配置背景干擾降低程序7〇2之功 能係破調變為兩組魏:輸人為信號訊息部份之信號依賴功 气輸人獨立於信魏息之信觸立魏。區分信號依賴功 月匕及彳§號獨立功能之目的係為增加信號獨立功能之重複使用 性。先編碼配置處理704及事後編碼配置處理708之功能係 為仏號依賴功能。相對地,編碼配置處理7〇6 ,能。因此’信號獨立功能伽用性係高 二重複使祕。本質上為信號依賴之特定功能係於本發明 較k貫施例巾從信餘驗賴為信賴立,藉加 功能之重複使祕。 快,動義触置背景預降低程序魏之流程圖係被 jTF於第人a,b’六及三13圖。第心及匕圖係顯示背景干擾 降,^ 800主功能之流程圖,其係藉由檢索無線資源管理胞 ϋ口識別(步驟8〇4)而開始(步驟8〇2)。無線傳輸/ H早々WTRU)量測及節點Β量測係從共享胞元資料庫被檢 索(4 8〇6)。重新指浓之候選時間槽係基於時間槽測量因子 定Ί上連時間槽及—下連時_(步驟_。具最低測 ί ϋ間槽係被選為重新指派之候選者。若無被重新指派 81〇),則狀態旗標係被設定標示為失敗情況(步 1¾ fiin、程序終止(步騾814)。若具有被重新指派之時間槽(步 則ί結方向係被設定為下連㈣816)。應注意鏈結 方向汗估順序係任意的,無論上連或下連均可先被評估。 議破鏈結方向之胞元中可用時間槽係被檢索(步驟 )°右無可用時間槽(步驟820) ’則狀態旗標係被設定標示 22 丄《357271 為失敗情況(步驟812)且程序終止(步驟814)。若有可用時間槽 (步驟820) ’則可用時間槽表列係被更新來排除候選時間槽(步 驟822)。將被重新指派之編碼組係基於編碼測量因子而被決定 於候^時間槽中(步驟824)。具最低測量因子之編碼係被選為 重^指派之候選者。若無被重新指派之編碼組(步驟826),則 狀態旗標係被設定標示為失敗情況(步驟812)且程序終止(步騾 8121若具有被重新指派之編碼組(步驟826),則無線傳輸/接 收單元(wtruh生能資訊係從無線傳輸/接收單元(WTRir)資料 庫被檢索(步騾828)。 無線傳輸/接收單元(WTRU)之路徑損失係被計算(步驟 830) ’而用於現行編碼合成傳輸頻道(CCTrCH)之實體頻道係被 重新1派(步驟832)。若頻道重新指派失敗(步驟834),則狀態 旗標係被設定標示為失敗情況(步驟812)且程序終止(步g 814)二若頻道重新指派成功(步驟834),則決定鏈結方向是否 為現仃上連(步驟836)。若鏈結方向為現行下連,則鏈結方向 係被1定為上連(步騾838),且該方法繼續於步驟818。 若現行鏈結方向為上連(步驟836),則決定將被重新指派 之上連編碼合成傳輸頻道及下連編碼合成傳輸頻道是否 相同無線傳輸/接收單元(WTRU)(步驟84〇)。若將被 麻 之編碼合成傳輸頻道(CCTrCH)屬於不同無線傳輸/接收元 (WTRU),職標係被蚊標㈣科同無 (WTRU)將被重新指派(步驟842)。 屬於相同無線傳輸/接收單元障聊^=^ 皮奴(轉842),則實體頻道配置資訊係被記錄於ί繞 輸/接收單元(WTRU)資料庫中(步驟844): ί ΪΪ ίίί用實體頻道時間槽資訊,重複期間值,及 序列移位及紐_,倾袼式編碼純呈現及 2 列。編碼魏係包含頻道式編碼,編碼使用“, 道識別’及編竭信號干擾比目標。 只體频 23 IJ57271 自由二體頻運配置資訊亦被記錄至實體頻道重新配置要求訊 :中(^驟846) ’狀態旗標係被設定標示"成功”(步騾848)且程 ϋΐί步驟814)。若該旗標標示該兩無線傳輸/接收單元 ( )使編碼合成傳輪頻道(CCTrCH)被重新指派(步驟 ^2):則用於該兩無線傳輸/接收單元(WTRU)之對應實體頻道 貝=被記錄(步驟祕),且兩實_道重新配置要求訊息係 被傳运(步驟846)。♦獅道f新配置要求訊息係包含以下資 訊.無線傳輸/接收單元(WTRU)識別,控制無線網路控制器識 別,,1鏈結識別,無線資源控制交易識別,上連編碼合成傳 輸頻道貧訊,及下連編碼合成傳輸頻道資訊。 步驟832係有關呼叫快速動態頻道配置背景干擾降低程 序5=功,以重新配置實體頻道。此核心功能係為信號獨立且 ^第六及三b圖來說明。由於以下附帶步驟係以背景干擾降低 程序來執行,所以功能600係以上述相同方式來操作。背景干 擾降低程序十,快速動態頻道配置類型係被設定為 ^ackg^dund”,且其可以步驟832之前任何步驟來設定。 若快速動態頻道配置類型為"BACKGROUND”(步驟618),則 候選4間槽之傳輸功率係被檢查決定其是否大於最小所需傳 輸功率(步驟^630)。若候選時間槽之傳輸功率小於最小值(步驟 632),則狀態旗標係被設定標示無解(步驟314 ;第三b圖)且 功,終止(步驟316 ;第三b圖)。若候選時間槽之傳輸功率大 於最小傳輸功率(步驟632),則程序繼續於上述步驟64〇。 無線鏈結附加之呼叫允許控制(CAC) 無線鏈結附加之呼叫允許控制(CAC)程序之概觀9〇〇係被 顯示於第九圖。快速動態頻道配置呼叫允許控制(CAC)程'序 902之主功能係包含三部份:事先編碼配置處理904,編碼配 置處理906及事後編碼配置處理908。事先編碼配置處理9〇4 可從無線鏈結附加要求訊息910(此後為”要求訊息")讀取無線 傳輸/接收單元(WTRU)量測,從無線資源控制共享胞元資g庫 24 1357271 量測’從無線資源管理無線傳輸/接收單元 ®'料庫18檢索編碼合成傳輸頻道(CCTrCH)資訊,專 用^資訊及無線傳輸/接收單元(WTRU)性能資訊。事先編碼 i己置處理904亦可從無線資源管理胞元資料庫⑽檢索新胞元 槽表列:從無線資源管理無線傳輪/接收單元 U)貧料庫918獲得編碼合成傳輸頻道(CCTrCH)資料速 ¥ ’及從操作及維護無線資源管理表資料庫m獲得編瑪組。 編碼_處理906可檢查新胞元中之編碼可用性,產生可 用時間槽之時_糊,搜尋編碼組之最轉(指派編碼組中 之編碼至可用時間槽),及從無線資源管理胞元資料庫916中 之編碼向量配置頻道式編碼。事後編碼配置處理908係負責更 新無線資源f理胞元資料庫别中之編碼向量資訊,紀錄新無 線無線鏈結資訊及實體頻道資訊於無線資源管理益線傳輸/接 收單元(WTRU)資料庫91",及紀錄編碼合成傳輸頻道 (CCTrCH)資訊,專用頻道資訊,專用實體頻道資訊,上連干 擾信號編碼功率資訊及功率控制資訊於無線鏈結附加回應 息 920。 μ 除了處理及資料庫間之資料交換’資料交換亦可直接發生 於處理之間。無線傳輸/接收單元(11^1;)量測,節點Β量^, 胞元中之可用時間槽表列,特定資料速率之編碼組表列及無線 傳輸/接收單元(WTRU)性能資訊,係從事先編碼配置處理9〇4 被傳送至編碼配置處理906。實體頻道資訊(各時間槽中之時間 槽表列及頻道式編碼)係從編碼配置處理906被傳送至事後編 碼配置處理908。 、'、 本發明中,無線鏈結附加之快速動態頻道配置呼叫允許控 制(CAC)程序902之功能係被調變為兩組功能:輸入為信 息部份之信號依賴功能,及輸入獨立於信號訊息之信號“釜二力 能。分隔信號依賴功能及信號獨立功能之目的係增加信U號獨立 功能之重複使用性。事先編碼配置處理904及事後編^配置處 理908之功能係為信號依賴功能。相對地,編瑪配置處理 25 1357271— 獨ί功能:因此’信號獨立功能之重複使用性 二日功此之重複使用性。本質上為信號依賴之特定 立,佳實闕情錢依馳職為信號獨 立错此增加破轉換功能之重複使用性。 用於無線鏈結附加之快速動態頻 鏈結附加程序之快速動態頻道配置呼叫允許控制(CAC)之主 力能1000。功能1000係開始於獲得無線鍵結附加要求訊 心γ驟1002),及從該要求訊息_取無線傳輸/接收單元 (WTRU)識別’新無線鏈結識別及新胞元識別(步驟1〇〇4)。該 要求訊息亦包含有或無無線傳輸/接收單元(WTRU 之 無線鏈結資訊。 热線資源管理胞元資料庫中之新胞元入口識別係被獲得 (步驟1006)。新胞元之節點B量測係可從無線資源控制共享胞 元資料庫獲得且被儲存於量測資料結構(步驟1〇〇8)。量測資料 結構係被動態儲存於快速動態頻道配置呼叫允許控制(CAC) 功能。當快速動態頻道配置呼叫允許控制(CAC)功能被跳出 時,其係被建立於快速動態頻道配置呼叫允許控制(CAC)功能 =呼叫及刪除時。節點B量測係包含共用量測及專用量測。 節點B共用量測係包含上連干擾信號編碼功率資訊及下連傳 輸載波功率。接著,舊胞元識別係基於無線傳輸/接收單元 (WTRU)識別從無線資源管理無線傳輸/接收單元(WTRU)資料 庫被檢索;屬於舊胞元令之無線傳輸/接收單元(WTRU)無線鏈 結中之編碼合成傳輪頻道(CCTrCH)資訊及專用頻道資訊係從 無線資源管理無線傳輸/接收單元(WTRU)資料庫被檢索(步驟 1010) ° 接著’決定包含下連干擾信號編碼功率及下連主共用控制 實體頻道被接收信號編碼功率(P-CCPCH RS CP)之無線傳輸/ 接收單元(WTRU)量測是否被包含於要求訊息中(步驟ι〇12)。 若無線傳輸/接收單元(WTRU)量測不被包含於要求訊息中,則 26 S ί ί轉輸触單元(wtru)資訊 騾=) 查疋否所有專用頻道均為非即時(步 ^有親均為非㈣,微祕標係被奴桿 ΐ終姆驟_。在此之失敗情況 二、音二5貝訊來進—步處理魏。應注意僅所有即時之專用 5 ^失敗情況;當無任何無線傳輸/接收單元(wtru)量洌及 道均為即時時才達到失敗情況。若所有專 ίί =(==16),則低速率暫時專用頻道係被配置給上連 輸頻道(步驟1〇22)。頻道被配置後,決定資 若資源配置失敗,則狀態旗標係 為失敗情況(步驟igi8)且功能終止(步驟刪)。若 泉鍵結資訊及實體頻道資訊係被紀錄於 二線傳輸接收單s(wtru)資料庫中’且編碼向 里貝訊係被更新於無線資源管理胞元資料庫中(步驟1〇26)。 旦及新無線資源控制交 ί識鍵結ΐ訊係包含無線鏈結識別’胞元識別’上連 ίϊ二道資訊~及下連編碼合成傳輪頻道資訊。編碼合 成傳輸頻迢(CTrCH)資訊係包含編碼合成傳輸頻道(CCTr 識別,編碼合成傳輸頻道(CCTrCH)狀態 ) 速率’允許資 專用T體,道貪訊。專用實體頻道資訊係包含專用實體頻道時 ’重複期間值及重複長度值。專用實體頻道時$ 槽貪j 5 3時間槽數,訓練序列移位及叢發類型,傳輸格式 編碼指標呈,及編褐資訊表列。編碼資訊係包含頻道式編瑪, 編碼使用H專用實體頻道識別及編碼信號對干擾目標。 ’ί 5新碼向量資訊係包含上連編碼向量資訊及下連編 碼向里資訊。十連編碼向量資訊係包含編碼識別,編碼 及編碼使用狀態。下連編碼向量資訊係包含編碼識別及 用狀態。 ,從 27 i m ?、若要求訊息中具有無線傳輸/接11欠單元(曹则量測(步驟 H,線傳輸/接收單元(WTRU)量測係從要求訊息被檢 茱且破局部儲存(步騾1032)。第一下 =κ:ΗΜΜ步驟1034)’且無線傳輸/接^單元 =貝訊係基於無線傳輸/接收單元(WTRU)識別,連結方向及 庙、/ ί別從無線資源管理無線傳輸/接收單元(^Ru)資料 日bL决倉(?肆】〇36)。被選擇編碼合成傳輸頻道(CCTrCH)之 2型係從無線資源管理無線傳輸/接收單元(^R切資料 庫被獲得(步騾1038)。若服務類型為即時(步驟1040),則胞中 H用時巧储蚊(倾麗)。若無_槽可用(步驟 ,則狀恶旗標係被設定標示為失敗情況(步驟1018)且程 序終止(步騾1020)。 人胞巾具有可用時聰(步驟1G44),則舊胞元中此編碼 己成傳輸頻道(CCTrCH)之最高要求資料速率係從無線資源管 理無線傳輸/接收單元(WTRU)資料庫被檢索(步驟1〇46)。要求 資料速率之編碼組係被獲得(步驟1〇48),且現行編碼合成 ,道(CCTrCH)之實體頻道(時間槽及編碼)係被配置且最佳解 若被找到則被紀錄(步騾1〇5〇)。步驟1050中之配置功能係被 更,細討論於第三a及b圖。若資源配置失敗(步驟1〇52),則 狀態旗標係被設定標示為失敗情況(步驟1〇18)且程序線止 驟 1020)。 若資源配置成功(步驟1052),則決定是否具有將被檢查之 現行方向(下連或上連)中之附加編碼合成傳輸頻道。若具g將 被檢查之附加編碼合成傳輸頻道,則下一個編碼合成傳輸頻 (CCTrCH)係被選擇(步驟1056),且程序繼續於步驟1〇38。若 無將被檢查之附加編碼合成傳輸頻道(步驟1054),則決定上連 編碼合成傳輸頻道是否已被檢查(步驟1058)。若上連編碼合成 傳輸頻道尚未被檢查’則第一上連編碼合成傳輸頻道係被^ (步驟1060),且程序繼續於步驟1〇36。若所有上連編碼合成 傳輸頻道均已被考慮(步驟1〇58),則程序繼續如上述之步 28 1026。 士接著,具有最新配置實體頻道資訊,專用頻道資訊,上連 時間槽干擾信號編碼功率(ISCP)資訊及功率控制資訊之編碼 二成傳輸頻道(CCTrCH)資訊係被放入無線鏈結附加回應訊息 (步驟1028) ’狀態旗標係被設定標示為成功情況(步驟丨〇3〇) 且程序終止(步驟1020)。編碼合成傳輸頻道(CCTrCH)資訊係 包含,碼合成傳輸頻道(CCTrCH)識別及專用實體頻道資訊。 專用貫體頻道資訊係包含時間槽資訊表列,重複期間及重複長 度。專用實體頻道時間槽資訊係包含時間槽數,訓練序列移^ 及叢發類型,傳輸格式編碼指標呈現及編碼資訊表列。編碼資 =係包含頻道式編碼及專用實體頻道識別。專用頻道資訊係包 ,多元指標及多元選擇指標。功率控制資訊係包含上連目標信 ,干擾比,最大上連目標信號干擾比,最小上連目標信號干^ 啟始下連傳輸功率,最A下連傳輸神及最小下連傳輸功 若服務類型為非即時(步驟1040),則新胞中之可用時間槽 決定(步騾1062)。若新胞中無時間槽可用(步驟1〇64),^ 態旗標係被设定標示為失敗情況(步驟1018)且程序終止 驟 1020)。 、 人若新胞中具有可用時間槽(步驟1〇64),則所有適用於編碼 二成傳_it(CCTi€H)之㈣速料從無線資鮮理無線 ^接收單元…丁如)資料庫被檢索(步驟1〇66),且最高資料速 破選擇(步驟1〇68)。用於被選擇資料速率之編碼組係被獲 驟1070),且用於本編碼合成傳輸頻道(CCTrCH)之一般 專用頻道係被配置且若最佳解被朗職紀錄(步驟 )。應注意步驟1050及1〇72本質上相同;非即時服務中, 用頻道係暫時的。若資源配置失敗(步驟1〇74),則決定是否 查之額外資料速率(步驟1G76)。若無將被檢查之其他 =連¥ ’則狀態旗標係被S定標示為失敗情況(步驟1018) 程序終止(步騾1020)。若具有將被檢查之其他資科速率,則 29 程序繼續如上述步驟1054。 應注意步驟1034,1058及1060中任一方向(下連或上連) 均可先被執行。如上述,下連方向係優先於上連方向被檢 查。若上連方向優先於下連方向被檢查,則功能1〇〇〇將以相 同方式操作。 步騾1050及1072係有關呼叫快速動態頻道配置演算之頻 這配置功能;此核心功能300係為信號獨立且以第三a及b圖 相同方式操作。 無線鏈結重新配置之呼叫允許控制(CAC) 無線鏈結重新配置之快速動態頻道配置呼叫允許控制 (CAC)程序11〇2之概觀11〇〇係被顯示於第_一圖。快速動態 頻道配置呼叫允許控制(CAC)控制程序11〇2係包含三部份‘Γ 事先編碼配置處理1104,編碼配置處理11〇6及事後編碼配置 處理1108。事先編碼配置處理1104可從無線鏈結重新配置預 備訊息1110檢索無線傳輸/接收單元(WTRU)資訊及從盔線資 源管^無線傳輸/接收單元(WTRU)資料庫1118'檢索無^傳輸/ 接^單元(WTRU)性能資訊。無線傳輸/接收單元(wjru^量測 及節點B量測係從無線資源控制共享胞元資料庫1112被檢 索。可用時間槽表列係從無線資源管理皰元資料庫1116被獲 得且編碼組係從操作及維護無線資源管理表資料庫1114被檢 索。 編碼配置處理1106可檢查胞元中之可用編碼,產生時間 槽序列,找尋編碼組之最佳解(指派編碼組中之編碼至可用時 間槽,及從無線資源管理胞元資料庫1116中之編碼向量配置 該集中式編碼)。事後編碼配置處理1108可更新無線資源管理 胞元^料庫1116中之編碼向量資訊,紀錄被配置實體頻道於 無線資源管理無線傳輸/接收單元(WTRU)資料庫mg中,及 紀錄貫體頻道參數及功率控制資訊於無線鏈結重新配置被妥 訊息1120中。 除了處理及資料庫間之資料交換,資料交換亦直接發生於 處理之間。無線傳輸/接收單元(WTRU)量測,節點B量測,胞 元中之可用時間槽表列’特定資料速率之編碼組表列及無線傳 輸/接收單元(WTRU)性能資訊,係從事先編碼配置處理11〇4 被傳送至編碼配置處理1106。實體頻道資訊(各時間槽中之時 間槽表列及頻道式編碼)係從編碼配置處理11〇6被傳送至事後 編碼配置處理1108。 本發明中,無線鏈結重新配置之快速動態頻道配置呼叫允 許控制(CAC)程序1102之功能係被調變為兩組功能:輸入為 信號訊息部份之信號依賴功能,及輸入獨立於信號訊息之信號 獨立功此。分隔#號依賴功能及信號獨立功能之目的係增加信 號獨立功能之重複使用性。事先編碼配置處理11〇4及事後編 碼配置處理11G8之功能係為信雜賴魏。相對地,編碼配 置處理1106之,此係為信號獨立功能。應注意編碼配置處理 1106之功能可藉由其他無線資源管理功能實施中之其他程序 來重複使用。 無線鏈結重新配置之快速動態頻道配置呼叫允許控制 (CAC)程序功能之流程圖係被顯示於第十二及十三a_c圖。第 十二圖顯示無線鏈結重新配置程序之快速動態頻道配置呼叫 允許控制(CAC)之主要介面程序12〇〇。程序12〇〇係藉由獲得 無線鏈結重新配置預備訊息(此後被稱為,,預備訊息";步驟 u〇2)來壯。職訊息係包含編碼合成傳輸頻道队沉印資 訊關將被附加或修改之編碼合成傳輸頻道⑼沉抑,專用 訊(ΐ關將被附加或修改之專用頻道),具有或沒有無線 yWTRU)㈣之無_職訊^、線傳輸/接收 5 ί虚TRU)、里㈣係包下連干擾信㉟編碼功率及下連主共用 收信號糾辨。無線職/接收單元 减麟綱細11取自賴綠,而胞元識 τόη/ΐ、、破頜取自t線傳輸/接收單元(^RU)資料庫(步驟 。無線貝源官理胞疋貢料庫之入口識別係接著被獲得(步 Π'57271 驟 1206)。 資料結構係被建立來局部儲存量測(步驟12〇8)。此量測資 料,構係被動態儲存於快速動態頻道配置呼叫允許控制(CAC) 功,中。其係被建立於快速動態頻道配置呼叫允許控制(CAC) 功能被呼叫之後’且被刪除於快速動態頻道配置呼叫允許控制 (C^Q功能被退出時。節點B量測接著從無線資源控制共享胞 凡=料庫被檢索且被局部儲存(步驟121〇)β節點B量測包含共 用里測及專用量測。節點Β量測包含上連干擾信號編碼功率 ,下連傳輸載波轉。_ Β專用制包含下連傳輸編碼功 率。 量測資料結構係包含胞元量測記錄表列。胞元量測記錄係 L 3胞7L識別及時間槽量測記錄表列。時間槽量測記錄包含時 間槽數二時間槽干擾信號編碼功率(ISCP),時間槽載波功率, =碼量測記錄表列。編碼量測記錄包含無線傳輸/接收單元 RU)識別,無線鏈結識別,專用實體頻道識別及編碼傳輸 功运。 右”、、線傳輸/接收單元(WTRU)量測被包含於預備訊息中 二驟1212),則無線傳輸/接收單元(WTRU)量測係從預備訊息 取且被局部儲存於量測資料結構中(步驟1214)。實體頻道 被配置給將被附加或修改之編碼合成傳輸頻道 _ 步驟1216)。無論編碼合成傳輸頻道(CCTrcH)將被 甚η或G改,應注意編碼配置程序(步驟係相同。 編碼配 以下列第十三a_e圖做更詳細討論。若實體頻道配置 1218),則狀態旗標係被設定標示為成功情況(步驟 =且程序終止(步驟1222)。若實體頻道配置成功(步驟 )’則狀態旗標係被設定標示為成功情況步2且 序終止(步驟1222〗。 線傳輸7接@單S(WTRU)量測不被包含於預備訊息 1二驟J212) ’貝1決定是否所有專用頻道均為非即時(步驟 。右所有專㈣道均鱗時’職態旗標係被設定標示 32 1357271 為失敗情況(步驟1224)且程序終止(步驟1222)。若所有專用頻 道均為非即時(步驟1228) ’則無線鏈結重新配置類型係被決定 (步驟1230)。無線鏈結配置類型係基於無線鏈結中之編碼合成 傳輸頻道(CCTrCH)來設定。若編碼合成傳輸頻道(CCTrCH)被 附加,則無線鏈結配置類型係被設定”MODIFY(修改)"。 若無線鏈結配置類型為”MODIFY”,則此標示為失敗情 況’且狀態旗標係被設定標示為失敗情況(步驟1224)且程序終 止(步驟1222)。該失敗情況標示無足夠資訊來儘一步處理要 求。當無線鏈結配置類型為"MODIFY"且無線鏈結重新配置訊 息不包含無線傳輸/接收單元(WTRU)量測時,則達到失敗情 況0 右無線鏈結重新配置類型為"addition”,則低速率暫B 專用頻道係被配置給將被附加之編碼合成傳輪頻道(步写 I232)。該程序繼續如上述步驟1218。 第十三a-c圖顯示頻道配置程序13〇〇,其係藉由快速動身 頻道配置呼叫允許控制(CAC)無線鏈結重新配置程序12〇〇 I 步驟⑵6來使用。程序測係開始於獲得預備訊息(步驟⑽ 綠娜触單元(WTRU_及嫌The flow chart of the calculation function is shown in the second a_c and the third a seven. The second a_c diagram shows the main interface function 200 of the Fast Dynamic Channel Configuration Call Admission Control (CAC) calculus established by the wireless link. The function 200 begins by obtaining a wireless link setup request message (hereinafter referred to as a "request message,"; step 202) and extracting parameters from the request message (step 204). The request message includes a coded composite transmission channel (CCT) ^:H) Information 'DCH' information, with or without wireless transmission/receiving unit (WTRU) measurement of wireless link information and wireless transmission/reception unit (WT^J) performance information. The parameters of the message include WTRU identification, cell identification, wireless link identification, and WTRU performance information (maximum physical channel number per time slot and maximum time slot per frame) The entry identification of the wireless dual source management cell database is obtained (step 2〇6). Next, it is determined whether the wireless transmission/reception unit (WTRU) including the downlink interference signal coding power (DL lscp) is measured. Included in the request message (step 208). If the WTRU (wjru) measurement is not included in the request message, then a check is made to determine if all dedicated channels are non-instant; step=0^212). If all The use of the channel is immediate, the status flag is set as the failure condition (step 214) and the function is terminated (step 216). The failure condition means that the wireless transmission/reception unit (WTRU) has no physical resources available. All are only = ^ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ , m = the channel is configured for the current coded composite transmission channel (CCTrCH) (step ^ channel is configured after the system determines whether the resource configuration is successful (step 220). = if the source configuration is unsuccessful, the status flag is set Loss, 2=) and function, (step 216). If the resource configuration is successful (step·', (then...line transmission/reception single tg(WTRU) entry is established and the benefit line is recorded in none (Step 222) The information recorded to the WTRU entry includes the WTRU 12 1357271 (y^RU) identifying the 'transaction identification' uplink wireless transmission/reception unit (stomach_performance) ^ News, connected to the wireless transmission / receiving unit (WTRlWi energy information, and wireless link information. The transmission/receiving unit (WTRU) performance information includes the maximum number of T slots per frame and the maximum number of uplinks per time (10). The downlink wireless transmission/receiving unit (WTRU) performance information includes the maximum number of slots per frame and The maximum number of physical channels per time slot is selected. The no-knot information includes rogue system, cell identification 'uplink coded composite transmission channel information and downlink coded composite channel information. Coded composite transmission channel (CCTrCH) information includes coding Synthetic Transport Channel (CCTrCH) identifies 'Coded Synthetic Transport Channel (CCTrCH) Status' code synthesis^ transmission frequency, (a: TrCH) signal-to-interference ratio (SIR) target, data fasting 2 allowed data rate, and dedicated physical channel (DPCH) information. The dedicated entity channel contains the time slot table, the training sequence (midamble) shift and the burst type = two transport format coding indicator (TFCI) presentation and coding information. The coded information contains the coded 'coded state' dedicated real (four) track identification and coded signal pair interference target. The physical channel information and power control information is placed in the wireless link setup message (step 224), and the status flag is set to indicate success (step eve and function termination (step 216). The physical channel information includes each time In the slot, the slot surface and the parent code. The time_Wei includes the $(four) period and the repeat controller includes the uplink target letter ratio, the maximum uplink, and the interference ratio 'minimum uplink signal to interference ratio. The transmission power, the transmission power of 1 connection, and the maximum allowable uplink transmission power. The present invention - ^ from the second structure view to request the message response message, because the two messages contain a large amount of shared information. (Step right if message There is an available wireless transmission/reception unit (WTRU) measurement request, and the WTRU measurement system is obtained from the wireless money, control sharing. Cell Node B Node 3 measurement includes shared measurement and dedicated measurement. Node rate: 2 m * even interference money code identification and Qilian transmission carrier power " *Special measurement includes downlink transmission coding power. The next code 13 13 if the input pro-wei _ (step 23G) ' And obtaining the service type of the Chootic Selective Coding Synthesis Channel (CCTrCH) (step 232). If the service type is immediate ^, step 234), the available time slot in the cell is determined (step 236). Available (surface 'pulse status is set to fail as 'month condition (v骒 214) and function terminated (step 216). If a time slot is available (step 238), the requested data rate is counted Different (j 240). The encoded data rate of the calculated data rate is obtained (step 242), and the J-code synthesis transmission channel (CCTrCH} physical channel (time slot and encoding) is broken configuration, and the best solution is Once found, it is recorded (step 244). The configuration function in step 244 is discussed in more detail in the following figures a and 3). If the resource = failure (step 246) 'the status flag is set In the case of a failure (step 214) and the function is terminated (step 216). The right lean source configuration is successful (step 246), then it is determined whether there is a 2-mixed mother transmission channel to be checked (step 248). If the resource configuration is successful, Then decide whether there is an additional coded composite transmission channel to be checked (step: if there is The additional coded composite transmission channel to be checked, the next j-compositing (CCTYCH) ride (money 25G), and the function continues to step 231. If there is no additional coded composite transmission channel to be checked (step -, then Whether the coded composite transmission channel has been checked (step 252). = the uplink coded mixed transmission county has not been checked, (4) - the uplink coded composite transmission frequency is selected (step 254), and the function continues in the step 232. If all of the coded hinges have been considered (face 252) can be as in step 222. If the wire is not instantaneous (step 234), the available time slot in the cell is ί ίί f ). If nothing is available (step 258), the check flag is not flagged as a failure condition (step 214) and the function is terminated (step 216). If there is a coherent slot (step 258), then the rate of the bee for the non-instant service is determined (step 260) and the highest data rate is selected (step 262). The coded group of the selected data rate is obtained (step 264), and the normal temporary dedicated parent of the current choreographed transmission channel (COYCH) is configured, 1357271 and the best solution is recorded if found (step 266) . It should be noted that steps 244 and 266 are essentially the same; in non-instant service, the dedicated channel is temporary. If the resource configuration fails (step 268), it is determined if there is an additional data rate to be checked (step 270). If there are no other data rates to be checked, the status flag is set to indicate a failure condition (step 214) and the function is terminated (step 216). If the resource configuration is successful (step 268), the function continues as described above in step 248 应 ' It should be noted that in steps 230 252 and 254, either direction (down or up) may be performed first. As described above, the lower direction is checked in preference to the upper direction. Function 200 will operate in the same manner, otherwise the connection will be checked first. - Steps 244 and 266 are related to the call fast dynamic channel configuration algorithm to configure the body channel. This core function 300 is signal independent and is illustrated by the third and b diagrams. Function 300 begins with receiving a code group and an available time slot as input (step 302). The first coding group is selected (step 3〇4) and it is determined whether the coding group is available for the cells (steps 306 and 308). If the selected coding group is not available in the cell, it is determined whether or not there are more coding groups to be checked (step 31A). If there are more code groups, the next code group is selected (step 312)' and the function continues at step 3〇6. If there is no coding group, then the indication fails. The 'sense label is set to mark the scale (step 314) and Wei terminates (step 316). 〇 ϊϊϊ ϊϊϊ ? 编 编 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 四 3 3 3 3 3 3 3 3 3 3 3 The resource elements required for the coding group in CCTrCH) are calculated (steps are generated ((4) 32〇), and the first time slot sequence is 322). The lower or upper direction is then determined (step 350). If you are in the middle, try to assign the current lower code group into the current time slot 3^0 slot (step sound if the link direction is up) (step iH line up the code group into the current time slot sequence of cocoa [J^, B Feng 354). In an alternative embodiment of the invention (not shown), step 350 is adapted. * Steps 352 and 354 can be combined into a single step to provide the most recent 15 attempted assignment of the current coding group. To the current copper trough towel (step, after 3 calls, it is decided whether the assignment solution has been found (step code indicates that the coding group was successfully assigned to the current time _ sequence). The solution was found. (lscp)^ Mosquito, the rate solution is regarded as the best solution and is recorded, (step 358) The three right % are not found, then step 358 is skipped. Next, decide whether there is any additional time to be considered Step 360). If there is an additional time slot sequence, the next time slot sequence is selected (step 362), and the function continues at step 35. If there is no additional time slot + step 360) ', then it is determined whether the optimal solution has been Found (step 364). If the best = is found, the function continues at point c of the call (ie, step „function). If the best solution is found, the listening secret is set to indicate successful assignment (step 366) and the function is terminated (step 骡316) ', Fast Dynamic Channel Configuration Call Admission Control (CAC) calculus 1 functions 352 and 354 are signal dependent. In the present invention, these two functions are capable. The related functions used for these two functions are also It has been modified to become a separate function of the phlegm. Because of the input of the function 352, 354, the message (such as inputting the message, the function 352, 354 can be noticed by other benefits of the fast dynamic channel configuration call control (CAC) The implementation is exemplified and can be further optimized. The summary of the fast dynamic channel configuration escape program 4〇2 is shown in the first function of the dynamic channel configuration escape program 402. = Go ahead of the code configuration process 404, the code configuration process 4〇6 and the post-code process 4〇8. The pre-code configuration process 404 begins with the receive measurement touch two, two ί^. ί two measurement touch signals, wireless Transmission/connection The unit ^ is ^): must be ^, and node] 3 measure the touch signal. The wireless transmission / receiving unit (wtru) ^ test ^ 3 contains the wireless transmission / receiving unit (WTRU) identification and time slot number table, and node B The measurement touches the number of slots included. The bypass procedure starts at 1257271 to receive a WTRU measurement signal or a Node B measurement signal. The pre-coding configuration process 404 can control the shared cell database from the radio resource. 412 is informed of the B-point measurement and the wireless transmission/reception unit (wjru) measurement, and the blind resource configuration information is obtained from the line resource management cell database 416, and the wireless resource management wireless transmission/reception unit (WTRU) database 418 is obtained. Obtaining WTRU performance information, determining a re-assigned composite transmission frequency (CCTrCH), calculating a WTRU path loss, and determining a candidate coding group to be reassigned, And obtaining the list of available time slots. The pre-encoding configuration process 4〇4 can be prepared for the input of the encoding configuration process 4〇6. The encoding configuration process 406 can check the encoding usability in the cell, and check the candidate 2f f transmission fetch) power 'check other _ 干扰 钱 ί ί 功率 功率 疋 疋 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 低于 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰 干扰The group's solution (borrow, assign the candidate code group to the available time slot), and select the solution with the lowest weighted interference k code power as the best solution. The post-code configuration process 4〇8 system will be the latest configuration physical channel Recorded in the RRC radio transmission/reception ^ (WTRU) database 418 towel and fill the physical channel reconfiguration request message 420 with the physical channel information. In addition to processing and data exchange between databases, data exchange is also directly generated. Wireless round/receive single S (WTRU) measurement, node B measurement, cell slot list 'candidate marshalling group and WTRU's spoofing system are transmitted from pre-encoding configuration processing 404 to encoding configuration Process 4〇6. The physical channel information (time slot table and channel code in each time slot) is transmitted from the code configuration process 4G6 to the post-code configuration process 4〇8. In the present invention, the function of the fast dynamic channel configuration escape calculation 4〇2 is adjusted. The power: the signal dependence function of the input part of the input and the signal independent function of the input signal signal. The 11-point signal-dependent function and the signal's unique purpose are the repetition of the independent function of the signal. Pre-coded - the geographical 4 〇 4 and post-compilation configuration processing - the function is signal dependent work 17 1757271 can. In contrast, the functionality of the encoding configuration process 406 is a signal independent function. The re-use of the independent function month is based on the reuse of the signal-dependent function. This feature is dependent on the k-number dependency to be converted to an apostrophe independent in the preferred embodiment of the invention, thereby increasing the reusability of the converted function. The functional flow chart of the fast dynamic frequency configuration escape program is shown in the fifth, a and b charts. The fifth and a diagrams show the flow chart of the main escape calculation. The system starts by receiving the input from the touch signal (step 5〇2). The entrance identification system of the β radio resource management cell database is The radio resource management cell g library is retrieved (step 504). The WTRU (Trading 1111;) measurement and the Node B measurement are retrieved from the shared cell database (steps 5〇6). With the link, the time slot link direction is determined (step 5G8), and the time slot with the worst bond problem is located. The candidate coded composite transmission channel to be re-private is based on the escape device 5ω). The escape program is triggered by the wireless transmission/tru in the time slot from the next consecutive code. At this time, the pure shirt (Wei U) encodes the synthetic transmission channel. The downlink coded work 3 is measured by the WTRU, and the program ί is touched by the WTRU. = plus the path loss value and the one that will be reassigned. The power of the teacher's face tree, with the coded composite transmission of the ί node b to the amount of tj B power is triggered by the number. 5 L out of the program is found by the node B measurement test furnace ^ ^ code synthesis transmission channel (step 512), the function of the furnace mark is broken _ things smooth (mail 1 program termination 13.57271 ^ candidate knitting into a transmission channel Found (step 5i2) from the radio 1 to manage the radio transmission unit step 518) ° scale transmission / receiving unit (WTRU) 俜 and 俜 f (step 52G) 'and candidate code to be reassigned After the poor trough is based on whether the transmitted transmission power of the interfering signal is less than the transmission power of the given time slot, the second art, the coded power (ISCP) gate insertion and the transmission power gate are designed to be coded. Reassigned (step 524), the status flag is set to indicate no failure (step 514) and the program terminates (step 516). The # s right has a reassigned code group (step 524), and the reassigned second stone '', the available pay slot is retrieved from the central repository (step 526). If no time is available; ff (step 528), the flag is set to indicate a failure condition (step 4 = 4) and the program terminates (step 516). If there is a time slot available (step 528), the gamma channel (time slot and code) is configured for the coded composite transmission channel (CCTrCH) (step 530). If the physical channel configuration fails (step 532), the status flag is set to fail (step 514) and the program terminates (step 516). If the resource configuration is successful (step 532)' then the new entity channel information is recorded in the Radio Resource Management Radio Transmission/Receive Unit (WTRU) database (step 534). As long as the best solution is found = then the resource configuration (step 532) is considered successful. Physical Channel Information Packet = Dedicated Physical Channel Time Slot Information 'Repeat period value and repeat length value. The dedicated channel time slot information includes the number of slots, the training sequence shift and the burst type 'transport format coding indicator presentation and coding information list. The coded information includes the channel code 'code usage status', the dedicated physical channel identification and the coded signal pair interference target. The physical channel information is also placed in the physical channel reconfiguration request message (step 536). The status flag is set to indicate success (step 538) and the process terminates (step 516). The physical channel reconfiguration request message includes the following resources: 19 control wireless network controllers to identify the frequency = signal, and the next link to the serial code synthesis and synthesis i ^, f = have (4) called the fast _ channel configuration escape program Configuration 3!; Γ can. This core function is signal independent and = S?=== :ns 606 and 608) (step:: medium; medium is: with the coding group (step will be checked in the code = mouth = 6^' Iimf, Wei (step 612) and Wei_ in the step labeling system are set to: abruptly:) the first 316; the third b)). Township, “b diagram” and the function is terminated (step is set to: 'two; '.=; is: ==, type: step. If the fast dynamic channel configuration type is: ESCAPE”, then ^^ f is Set the mark without solution (step 314) and the work is terminated (step; 16; i' scrambled signal, power (ISCPX (four) 624). If there is no other low-interference piece b)) 20 1357271 if there is a lower interference signal Another time slot of the coded power (ISCP) (step 626) or if the fast dynamic channel configuration type is "rbsexup" (step 618), the required resource elements of the code group in the code synthesis transmission channel (CCTrCH) are Count different steps 骡 640). A time series is generated for the available time slots (step 642), and the first time series is selected (step 644). The method continues at step 350 as in the third b diagram above. If the fast dynamic channel configuration type is "background, the steps performed (step 618) are discussed below. Background Interference Reduction - Overview of the Fast Dynamic Channel Configuration Background Interference Reduction Program 702 is shown in Figure 7. Fast Dynamic Channel Configuration Background Interference Reduction Program 7 〇 2 The main function of this system consists of two parts: pre-coding configuration processing 7〇4, encoding configuration processing 706, and post-coding configuration processing 7〇8. The pre-coded configuration process 7〇4 starts ^ receiving the background timing touch signal 71〇. The pre-coding configuration processing 7〇4 can obtain the population identification of the f-line resource management cell database 716, obtain the node B measurement from the wireless dragon, control & total j-resource database 712, and determine that the re-assignment is to be configured into the transmission channel. (CCTrCH), calculate the WTRU, path loss, determine the candidate time slot to be reassigned (one uplink time slot and two I time slot), from the radio resource management cell database < 710 search will be used: re-assigned the list of available time slots, determine that the secondary direction will be reassigned the secondary f-selection code group, and obtain wireless from the RRC WTRU. Transmitting/receiving unit (WTRUy & information, and "·, line transmission/reception unit (WTRU) path loss., #编码 配置处理706 can check the coding availability in the cell, check the transmission of the slot (four) power 'search The assigned solution of the coding group of the time slot sequence (by the candidate coding group to the available time slot), and the solution with the lowest weighted coding power (ISCP) is selected as the optimal solution. The post-coding configuration processing 7〇8 system Two shells, face configuration entity pro-hidden wireless resource management wireless transmission / receiving heavy, silk thief: #转入的实体频道 21 f·» 357271 In addition to processing and data exchange between the database 'data exchange is also directly generated in Between the processing, the WTRU measurement, the Node B measurement, the available time slot table in the cell, the candidate coding group and the WTRU performance. Processing 706 is performed. The physical channel information (each slot coding) is transmitted from the encoding configuration processing 706 to the post-coding configuration processing 7-8. In the present invention, the function of the fast dynamic channel configuration background interference reduction program 7〇2 is broken into two groups. Wei: The signal that the input signal is part of the signal is dependent on the power of the letter. The signal is independent of the letter of Wei Wei. The purpose of distinguishing the signal depends on the function of the function and the independent function is to increase the reusability of the signal independent function. The functions of the first coding configuration process 704 and the post-coding configuration process 708 are nickname dependent functions. In contrast, the code configuration process 7 〇 6 can, therefore, the 'signal independent function sufficiency is high and the second repetition is secret. Essentially The specific function of the signal dependence is based on the fact that the method of the invention is based on the trust of the credit, and the repetition of the function is used to make the secret. The fast, dynamic touch background background pre-down procedure Wei's flow chart is jTF The first person a, b' six and three 13 pictures. The first heart and the picture show the background interference drop, ^ 800 main function flow chart, which is identified by searching the radio resource management cell mouth (step 8〇4) Start (step 8 〇 2). Wireless transmission / H early WTRU measurement and node measurement system is retrieved from the shared cell database (4 8 〇 6). Re-referring to the rich candidate time slot based on the time slot measurement factor Even the time slot and the next time _ (step _. with the lowest measured ϋ ϋ 槽 is selected as a candidate for reassignment. If no reassignment 81 〇), the status flag is set to indicate failure (Step 13⁄4 fiin, program termination (step 814). If there is a time slot that is reassigned (step ί knot direction is set to lower (four) 816). It should be noted that the chain direction is estimated to be arbitrary, regardless of The connection or the connection can be evaluated first. The available time slot in the cell in the direction of the link is retrieved (step) ° There is no time slot available on the right (step 820) 'The status flag is set to mark 22 丄357271 is a failure condition (step 812) and the program terminates (step 814). If there is a time slot available (step 820)' then the available time slot list is updated to exclude candidate time slots (step 822). The coded group to be reassigned is determined in the time slot based on the coded measurement factor (step 824). The coding system with the lowest measurement factor is selected as the candidate for the assignment. If there is no reassigned code group (step 826), the status flag is set to indicate a failure condition (step 812) and the program terminates (step 8121 if there is a reassigned code group (step 826), then wireless The transmit/receive unit (wtruh biometric information is retrieved from the wireless transmission/reception unit (WTRir) database (step 828). The path loss of the WTRU is calculated (step 830)' The physical channel of the current coded composite transmission channel (CCTrCH) is re-sent (step 832). If the channel reassignment fails (step 834), the status flag is set to indicate a failure condition (step 812) and the procedure terminates. (Step g 814) If the channel reassignment succeeds (step 834), it is determined whether the link direction is the current connection (step 836). If the link direction is the current connection, the link direction is determined as 1 Connected (step 838), and the method continues at step 818. If the current link direction is uplink (step 836), then it is determined whether the upper coded composite transmission channel and the downlink coded composite transmission channel will be reassigned. Same WTRU (steps) 84〇). If the coded composite transmission channel (CCTrCH) to be belonged to a different WTRU, the locator is reassigned by the WTRU (step 842). The same wireless transmission/reception unit is blocked by ^=^ Pinu (transfer 842), and the physical channel configuration information is recorded in the WTRU's database (step 844): ί ΪΪ ίίί using the physical channel Time slot information, repeat period values, and sequence shifts and __, 袼-coded pure presentation and 2 columns. The coded Wei system contains channel coding, and the code uses ", channel identification" and compiles the signal interference ratio target. Body frequency 23 IJ57271 Free two-body frequency configuration information is also recorded to the physical channel reconfiguration request message: Medium (^ 846) 'The status flag is set to mark "success" (step 848) and process ϋΐ step 814 If the flag indicates that the two WTRUs have re-assigned the coded composite transport channel (CCTrCH) (step ^2): then the corresponding entity for the two WTRUs Channel Bay = is recorded (step secret), and two real_channel reconfiguration The message is transmitted (step 846). ♦ The new configuration request message includes the following information: WTRU identification, control wireless network controller identification, 1 link identification, radio resources Control transaction identification, uplink coded composite transmission channel, and downlink coded composite transmission channel information. Step 832 is related to call fast dynamic channel configuration background interference reduction procedure 5=work to reconfigure physical channel. This core function is signal independent and is illustrated by the sixth and third b diagrams. Since the following accompanying steps are performed with the background interference reduction program, the function 600 operates in the same manner as described above. The background interference reduction procedure ten, the fast dynamic channel configuration type is set to ^ackg^dund", and it can be set in any step before step 832. If the fast dynamic channel configuration type is "BACKGROUND" (step 618), the candidate The transmission power of the four slots is checked to determine if it is greater than the minimum required transmission power (step 630). If the transmission power of the candidate time slot is less than the minimum value (step 632), the status flag is set to indicate no solution (step 314; third b picture) and work is terminated (step 316; third b picture). If the transmission power of the candidate time slot is greater than the minimum transmission power (step 632), then the program continues at step 64 above. The Wireless Link Attached Call Admission Control (CAC) Wireless Link Attached Call Admission Control (CAC) program overview 9 is shown in Figure 9. The main function of the Fast Dynamic Channel Configuration Call Admission Control (CAC) procedure 902 consists of three parts: a pre-coding configuration process 904, an encoding configuration process 906, and a post-coding configuration process 908. The pre-coding configuration process 9〇4 can read the wireless transmission/receiving unit (WTRU) measurement from the wireless link attach request message 910 (hereinafter referred to as the “request message”), and control the shared cell source g library from the radio resource 24 1357271 The measurement 'retrieves the coded composite transmission channel (CCTrCH) information, the dedicated information and the wireless transmission/reception unit (WTRU) performance information from the radio resource management wireless transmission/reception unit®'s library 18. The pre-coded i-process 904 is also The new cell slot list can be retrieved from the radio resource management cell database (10): from the radio resource management radio transmission/receiving unit U) the poor material library 918 obtains the coded composite transmission channel (CCTrCH) data speed ¥ 'and the slave operation and Maintain the radio resource management table database m to obtain the marshalling group. The encoding_processing 906 can check the encoding availability in the new cell, generate the available time slot, and search for the encoding group (the encoding in the encoding group to The time slot is used, and the channel coding is configured from the coding vector in the radio resource management cell database 916. The post-coding configuration process 908 is responsible for updating the radio resource f cell directory. Coding vector information, record new wireless wireless link information and physical channel information in the RRC transmission and reception unit (WTRU) database 91", and record code synthesis transmission channel (CCTrCH) information, dedicated channel information, dedicated Physical channel information, uplink interference signal encoding power information and power control information in the wireless link additional response 920. μ In addition to processing and data exchange between the database 'data exchange can also occur directly between processing. Wireless transmission / reception Unit (11^1;) measurement, node quantity ^, available time slot table in cell, code group list of specific data rate and WTRU performance information, from pre-coding configuration The process 94 is transmitted to the code configuration process 906. The physical channel information (time slot table and channel code in each time slot) is transmitted from the code configuration process 906 to the post-code configuration process 908. The function of the fast dynamic channel configuration call admission control (CAC) program 902 attached to the wireless link is converted into two sets of functions: the input is the information department. The signal relies on the function and inputs the signal independent of the signal message. The purpose of separating the signal dependent function and the signal independent function is to increase the reusability of the independent function of the letter U. The functions of the pre-encoding configuration processing 904 and the post-processing configuration processing 908 are signal dependent functions. In contrast, the Ma Ma configuration processing 25 1357271 - unique function: Therefore, the repetitive use of the signal independent function is the reusability of the second day. In essence, it is the specificity of the signal dependence, and the good and bad feelings of the money are the same as the signal, which increases the reusability of the conversion function. The fast dynamic channel configuration call admission control (CAC) primary power 1000 for wireless link-attached fast dynamic frequency link add-on programs. The function 1000 begins with obtaining a wireless bonding add-on request heartbeat gamma step 1002), and from the request message _takes the WTRU to identify 'new wireless link identification and new cell identification (step 1〇〇) 4). The request message also includes the presence or absence of a WTRU's wireless link information. The new cell entry identification in the hotline management cell library is obtained (step 1006). Node B of the new cell The measurement system is obtained from the wireless resource control shared cell database and stored in the measurement data structure (steps 1 and 8). The measurement data structure is dynamically stored in the fast dynamic channel configuration call admission control (CAC) function. When the Fast Dynamic Channel Configuration Call Admission Control (CAC) function is popped out, it is established when the Fast Dynamic Channel Configuration Call Admission Control (CAC) function = Call and Delete. The Node B measurement system includes shared measurement and dedicated. The Node B shared measurement system includes uplink interference signal coding power information and downlink transmission carrier power. Then, the old cell identification system is based on the wireless transmission/reception unit (WTRU) identification from the radio resource management wireless transmission/reception unit. The (WTRU) database is retrieved; the coded composite transport channel (CCTrCH) information and the dedicated channel information system in the wireless link of the WTRU's wireless transmission/receiving unit (WTRU) The WTRU data base is retrieved from the radio resource management (step 1010) ° then 'determines the downlink coding signal power and the downlink shared control entity channel received signal coding power (P-CCPCH RS CP Whether the WTRU measurement is included in the request message (step ι〇12). If the WTRU measurement is not included in the request message, then 26 S ί ί Transfer touch unit (wtru) information 骡 =) Check whether all the dedicated channels are non-instant (step ^ have pro-all non-four (four), micro-secret label is the slave rod ΐ final _ _. , sound 2 5 Beixun to enter - step processing Wei. Should pay attention to only all the instant dedicated 5 ^ failure situation; when there is no wireless transmission / receiving unit (wtru) amount and the road is real time to achieve failure. For all exclusive ί = (==16), the low-rate temporary dedicated channel is configured for the uplink channel (steps 1〇22). After the channel is configured, the status flag is failed after the resource resource configuration fails. Case (step igi8) and function termination (step deletion). The information and physical channel information are recorded in the second-line transmission receiving list s (wtru) database' and the code is updated to the radio resource management cell database (steps 1〇26). The wireless resource control communication key includes the wireless link identification 'cell identification' and the second-order information and the downlink code synthesis synthesis channel information. The coded composite transmission frequency (CTrCH) information contains the code. Synthetic transmission channel (CCTr identification, coded composite transmission channel (CCTrCH) status) Rate 'allows dedicated T body, channel corruption. Dedicated physical channel information contains the 'duration period value and repetition length value when the dedicated physical channel is included. When the dedicated physical channel is used, the number of slot slots, the training sequence shift and the burst type, the transmission format, the coding index, and the brown information list. The coding information includes channel-based coding, and the coding uses the H-specific physical channel identification and the coded signal to interfere with the target. The 'ί 5 new code vector information contains the upper coded vector information and the downstream coded inward information. The ten-coded vector information contains the code recognition, coding and coding usage status. The following code vector information contains the code recognition and usage status. From 27 im ?, if there is a wireless transmission/connection 11 owing unit in the request message (Cao is measured (step H, the line transmission/reception unit (WTRU) measurement system is checked from the request message and the local storage is broken (step 1032) First ==κ:ΗΜΜStep 1034)' and the wireless transmission/connection unit=Bei system is based on the wireless transmission/reception unit (WTRU) identification, the connection direction and the temple, and the wireless transmission from the wireless resource management/ The receiving unit (^Ru) data day bL is closed (?肆]〇36). The type 2 selected to be coded composite transmission channel (CCTrCH) is obtained from the radio resource management wireless transmission/reception unit (^R cut database is obtained ( Step 1038). If the service type is immediate (step 1040), the H in the cell uses the time to store the mosquito (pour). If no slot is available (step, the flag is set to indicate the failure condition ( Step 1018) and the program is terminated (step 1020). The human cell towel has available time (step 1G44), and the highest required data rate of the encoded channel (CCTrCH) in the old cell is wirelessly transmitted from the radio resource management. / Receiver unit (WTRU) database is retrieved (step 1 〇 46). Request data rate encoding It is obtained (step 1〇48), and the current code synthesis, the physical channel (time slot and code) of the channel (CCTrCH) is configured and the best solution is recorded if found (step 1〇5〇). The configuration function in step 1050 is further discussed in detail in the third a and b diagrams. If the resource configuration fails (steps 1〇52), the status flag is set to indicate a failure condition (steps 1〇18) and the program Line stop 1020). If the resource configuration is successful (step 1052), it is determined whether there is an additional coded composite transmission channel in the current direction (downlink or uplink) to be checked. If g is to be checked, additional code synthesis The transmission channel, the next coded composite transmission frequency (CCTrCH) is selected (step 1056), and the process continues at step 1 〇 38. If there is no additional coded composite transmission channel to be checked (step 1054), then the decision is made. Whether the coded composite transmission channel has been checked (step 1058). If the uplink coded composite transmission channel has not been checked, then the first uplink coded composite transmission channel is (step 1060) and the process continues at step 1〇36. If all the uplink coded composite transmission channels are Considered (step 1〇58), the program continues as described above in step 28 1026. Then, with the latest configuration physical channel information, dedicated channel information, uplink time slot interference signal coding power (ISCP) information and power control information The Coded Transport Channel (CCTrCH) message is placed in the Wireless Link Attachment Response message (step 1028) 'The status flag is set to indicate success (step 丨〇3〇) and the program terminates (step 1020). The composite transport channel (CCTrCH) information includes, the code synthesis transmission channel (CCTrCH) identification and the dedicated physical channel information. The dedicated channel information includes time slot information table columns, repeat periods and repeat lengths. The dedicated physical channel time slot information includes the number of time slots, the training sequence shift and the burst type, the transmission format coding indicator presentation and the coding information list. Coding resource = contains channel coding and dedicated physical channel identification. Dedicated channel information package, multiple indicators and multiple selection indicators. The power control information includes the uplink target signal, the interference ratio, the maximum uplink signal interference ratio, the minimum uplink signal, and the transmission power. The most A downlink transmission and the minimum downlink transmission service type. If it is not immediate (step 1040), the available time slot in the new cell is determined (step 1062). If no time slot is available in the new cell (steps 1 - 64), the flag is set to indicate a failure condition (step 1018) and the program terminates 1020). If there is a time slot available in the new cell (steps 1〇64), then all the data applicable to the coded _it (CCTi€H) (four) fast material from the wireless resource management wireless ^ receiving unit ... Ding Ru) data The library is retrieved (steps 1 - 66) and the highest data is broken (steps 1 - 68). The code group for the selected data rate is obtained 1070), and the general dedicated channel for the coded composite transmission channel (CCTrCH) is configured and if the best solution is recorded (step). It should be noted that steps 1050 and 1〇72 are essentially the same; in non-instant service, the channel is temporary. If the resource configuration fails (step 1〇74), it is decided whether to check the additional data rate (step 1G76). If there is no other = even ¥' to be checked, the status flag is marked as a failure condition (step 1018) and the program is terminated (step 1020). If there are other rates of interest to be checked, then the process continues as in step 1054 above. It should be noted that any of the steps 1034, 1058 and 1060 (lower or upper) can be performed first. As described above, the lower direction is checked in preference to the upper direction. If the upper direction is checked in preference to the lower direction, the function 1〇〇〇 will operate in the same way. Steps 1050 and 1072 are related to the frequency of the call fast dynamic channel configuration algorithm. This core function 300 is signal independent and operates in the same manner as the third a and b pictures. The Wireless Link Reconfiguration Call Admission Control (CAC) Wireless Link Reconfiguration Quick Dynamic Channel Configuration Call Admission Control (CAC) program 11〇2 overview is shown in Figure _1. The fast dynamic channel configuration call admission control (CAC) control program 11 〇 2 includes three parts Γ 事先 pre-encoding configuration processing 1104, encoding configuration processing 11 〇 6 and post-coding configuration processing 1108. The pre-encoding configuration process 1104 can retrieve the wireless transmit/receive unit (WTRU) information from the wireless link reconfiguration preparation message 1110 and retrieve the no-transmission/receive from the helmet resource management unit (WTRU) database 1118'. ^Unit (WTRU) performance information. The wireless transmission/reception unit (wjru^ measurement and node B measurement system is retrieved from the radio resource control shared cell database 1112. The available time slot list is obtained from the radio resource management blister database 1116 and the coding group is obtained. The operation and maintenance radio resource management table database 1114 is retrieved. The code configuration process 1106 can check the available codes in the cells, generate a time slot sequence, and find the best solution for the code group (assign the code in the code group to the available time slot) And configuring the centralized coding from the coding vector in the radio resource management cell database 1116. The post-coding configuration processing 1108 can update the coding vector information in the radio resource management cell 1116 to record the configured physical channel. The radio resource management wireless transmit/receive unit (WTRU) database mg, and the recorded cross-channel parameter and power control information are stored in the radio link reconfiguration message 1120. In addition to processing and data exchange between data banks, data exchange It also happens directly between processing. WTRU measurement, Node B measurement, available time slot table in cells 'Specific data rate coding group list and WTRU performance information are transmitted from the pre-encoding configuration process 11〇4 to the coding configuration process 1106. Physical channel information (time slot table in each time slot) The column and channel coding are transmitted from the code configuration process 11〇6 to the post-code coding configuration process 1108. In the present invention, the function of the fast link reconfiguration fast dynamic channel configuration call admission control (CAC) program 1102 is adjusted. It becomes two sets of functions: the input is the signal-dependent function of the signal part, and the input signal independent of the signal message is independent. The purpose of separating the #-dependent function and the signal independent function is to increase the reusability of the signal independent function. The function of the pre-encoding configuration processing 11〇4 and the post-coding configuration processing 11G8 is the confusing. In contrast, the encoding configuration processing 1106 is a signal independent function. It should be noted that the function of the encoding configuration processing 1106 can be performed by other Other programs in the implementation of the RRC function are re-used. Fast dynamic channel configuration call for wireless link reconfiguration The flow chart of the Allow Control (CAC) program function is shown in Figures 12 and 13a_c. Figure 12 shows the main interface program for the Fast Dynamic Channel Configuration Call Admission Control (CAC) of the Wireless Link Reconfiguration Procedure.程序 Program 12 is enhanced by obtaining a wireless link reconfiguration preparation message (hereinafter referred to as "preparation message"; step u〇2). The message system contains the coded composite transmission channel team printing information. The coded composite transmission channel (9) will be added or modified, the dedicated message (the dedicated channel to be attached or modified), with or without the wireless yWTRU) (4) No _ service ^, line transmission / reception 5 ί The virtual TRU), the inner (four) system package and the interference signal 35 encoding power and the next main shared signal are corrected. The wireless job/receiving unit is reduced from the green, while the cell is recognized as τόη/ΐ, and the broken jaw is taken from the t-line transmission/reception unit (^RU) database (step. Wireless Beiyuan official cell 疋The entrance identification system of the tributary library is then obtained (step 57 '57271, step 1206). The data structure is established to locally store the measurements (steps 12〇8). This measurement data is dynamically stored in the fast dynamic channel. Configure Call Admission Control (CAC), which is established after the Fast Dynamic Channel Configuration Call Admission Control (CAC) feature is called' and is deleted in the Fast Dynamic Channel Configuration Call Admission Control (C^Q function is exited) The Node B measurement is then retrieved from the RRC resource sharing repository and stored locally (step 121 〇). The beta Node B measurement includes the shared metric and the dedicated measurement. The node Β measurement includes the uplink interference signal. Encoding power, downlink transmission carrier rotation. _ Β dedicated system includes downlink transmission coding power. Measurement data structure includes cell measurement record table. Cell measurement record system L 3 cell 7L identification and time slot measurement Record table column. Time slot measurement record package Time slot number two time slot interference signal coding power (ISCP), time slot carrier power, = code measurement record list. Code measurement record includes wireless transmission/reception unit RU) identification, wireless link identification, dedicated physical channel identification And the code transmission power. Right, the line transmission/reception unit (WTRU) measurement is included in the preliminary message, step 212), then the WTRU measurement system is taken from the preliminary message and is partially Stored in the measurement data structure (step 1214). The physical channel is configured for the coded composite transmission channel to be appended or modified (step 1216). Note that regardless of the coded composite transmission channel (CCTrcH) will be changed by η or G, it should be noted The encoding configuration procedure (the steps are the same. The encoding is discussed in more detail with the thirteenth a_e diagram below. If the physical channel configuration 1218), the status flag is set to indicate success (step = and the program terminates (step 1222)). If the physical channel configuration is successful (step), then the status flag is set to be successful as step 2 and the sequence is terminated (step 1222). Line transmission 7@@S (WTRU) measurement is not included in the preliminary message. 1 2 J212) 'Bei 1 decides whether all the dedicated channels are non-instant (step. Right all the special (four) road scales' position flag is set to indicate 32 1357271 as a failure condition (step 1224) and the program terminates ( Step 1222) If all the dedicated channels are non-instant (step 1228) ' then the wireless link reconfiguration type is determined (step 1230). The wireless link configuration type is based on the coded composite transmission channel in the wireless link (CCTrCH) To set. If the coded composite transmission channel (CCTrCH) is attached, the wireless link configuration type is set to "MODIFY (modified) ". If the wireless link configuration type is "MODIFY", then this is indicated as failure condition' and the status flag is set to indicate a failure condition (step 1224) and the program terminates (step 1222). This failure condition indicates that there is not enough information to process the request as much as possible. When the wireless link configuration type is "MODIFY" and the wireless link reconfiguration message does not include WTRU measurement, then the failure condition is reached. 0 The right wireless link reconfiguration type is "addition" Then, the low-rate temporary B dedicated channel is configured to the coded composite transport channel to be attached (step I232). The program continues as in the above step 1218. The thirteenth ac diagram shows the channel configuration program 13〇〇, which is borrowed The Call Forwarding Control (CAC) Wireless Link Reconfiguration Procedure 12〇〇I Step (2) 6 is used by the Quick Start Channel. The program begins with obtaining the preliminary message (Step (10) Green Touch Unit (WTRU_ and suspect)

第一下連編碼合成傳輸頻道係被選擇(步騾13〇 盔# 次J* 欠單疋(WTRU)性能係從無線傳輸/接11欠單元(WTRU 破檢索(步驟13G8)。被選擇編碼合成傳輸頻道(CCTrCH 務類型係被獲得(步驟,且若服務類型為即時㈣ 1314 於胞元中之即時之可用時間槽係被決定(步舉 右無可用時間槽(步驟1316) ’則此標示為失敗情況 =1¾储奴標轉纽情況㈣1318)且程序料 之塊ίίΙ(=)ϊ(ί^316) ’被選擇編碼合成傳輸_ 妯^^1卞()係被決定(步驟1322),且被要求資料速率择 片异(⑽1324)。被計算龍速率之編馳顧獲^ 33 成傳輸頻道之實體頻道(時間槽及編碼) ’士处^土解若破找到則被記錄(步驟1328)。步驟1328 ^ Lit係被更詳細討論於以上第三圖。若資源配 賴谢敗情況(步 指若成功(步驟133G) ’則決定現行方向(下連或上 且^^破檢查之額外編碼合成傳輸頻道(步驟 查之料編碼合祕輸舰,則現行方 $中^下-個、,扁碼合成傳輸頻道(CCTrCH)(步驟1且程 1310。若無將被檢查之額外編碼合成傳輸頻道, /、疋、、碼合成傳輸頻道是否已被檢查(步驟1336)。若上 頻=未被檢查,則第一上連編碼合成傳輸頻 '車⑽,且輕序繼續於步驟1308。若所有上 已被考慮(步驟1336),則無線傳輸/接 益線傳幹/接收-貝訊體頻道資訊係被更新於無線資源管理 料料,且絲向量储更新於 .、、、、,泉貝源g理胞το貧料庫中(步驟U40)。 配輸/接收單S(WTRU)#訊係包含具有最新 n*二:又為5之上連編碼合成傳輸頻道資訊(用於將被附 ΐ 合成傳輸頻道(CCTrCH))及下連編碼合成傳輸 Ιΐϊ被附加或修改之編碼合成傳輸頻道 CCTrdj雜触道賴魏麵碼合靖輸頻道 ,編碼合成傳輸頻道(CCTrCH)狀態,編碼合成 ίίΪίϊ ^ ^ ^ 用用貫體頻道資訊。專用實體頻道資訊包含專 槽魏包含_,繼序列移位及叢發類型1 潘式編碼指標呈現及編碼資訊表列。編碼資訊 道 Γ =3,,專用實體頻道識別及編碼信號對ΐίί *、,扁碼向里貧訊包含上連編碼向量資訊及下連編碼向量資 34 ί能訊包含編碼識別’編碼塊標示及編碼使用 實量㈣包含編碼識別及編碼使用狀態。 配置預備訊及功率控制資訊接著被放入無線鏈結重新 源配置(步驟旗標係被設定標示為成功資 編碼資訊^ ’f倾錢谢旨標呈現及 率,最小=傳下連傳輸功率’最大下連傳輸功 作號對輸ίί ’表大上連信號對干擾比率及最小上連 Γ:設定 之塊合成傳輸頻道 被計算㈣叫 =置被選而擇=成,輸頻道之實體蝴 態旗標顧設定標示輕敗情況ί步 服務之㈣速率係被決定(步驟^2), 且取冋貝科速率係被選擇(步驟1354)。被選擇資料 專用頻k係破配置且隶佳解若被找到則被記錄(步驟1358)。應 35 Ί—3—57271 注意’步驟1328及1538本質上相同;非即時服務中,專用頻 道係為暫時。 ' 若資源配置失敗(步驟1360) ’則決定是否具有將被檢查之 額外資料速率(步騾1362)。若無其他將被檢查之資料速率了則 狀態旗標係被設定標示為失敗情況(步驟1318)且程序終^(步 騾1320)。若具有其他將被檢查之資料速率(步驟1362)',則次 高資料速率係被選擇(步驟1364),且程序繼續於步驟1356。 若資料配置成功(步驟1360),則程序繼續如上述步驟1332。 應注意步驟1306,1336及1338,任一方向(下連或上連) 係可首先被執行。如上述,下連方向係優先於上連方向被檢 查右上連優先於下連被檢查’則程序1300將以相同方式摔 作。 步驟13 2 8及1358係有關呼叫快速動態頻道配置演算之頻 道配置功能;此核心功能係為信號獨立且被說明於以上第三a 及b圖。 雖然較佳貫施例係以使用分時雙工模式之第三代夥伴計 劃(3GPP)寬頻分碼多重存取(W-CDMA)系統來說明,但實施例 係可應用至任何混合分碼多重存取(CDMAy分時多重存取 (TDMA)通信系統。另外,通常使用如3Gppw_CDMA之建議 分頻雙工(FDD)模式之光束形成之某些實施例係可應用至分 碼多重存取系統。雖然本發明特定實施例已被顯示及說明,但 只要不背離本發明範疇,熟練技術人士均可做許多修改及變 異。以上說明提供例證且不限任何方式之特定發明。 【圖式簡單說明】 第一圖為無線鏈結設立之快速動態頻道配置呼叫允許控制 (CAC)演算概觀。 第二a-c圖為第一圖所示無線鏈結設立之快速動態頻道配置呼 ^允許控制(CAC)演算流程圖。 第一a及二b圖為第二圖所示快速動態頻道配置呼叫允許控制 (CAC)演算之頻道配置功能流程圖。 36 ,四圖為依據本發明之快速動態頻道配置逸出程序概觀。 ^五a及五b圖為第四圖所示快速動態頻道配置逸出程序之流 程圖。 第六圖顯示第五&及五1)圖所示快速動態頻道配置逸出程序之 頻道配置功能流程圖之第一部份。 第七圖為依據本發明之快速動態頻道配置背景干擾降低程序 概觀。 第八a及八b圖顯示第七圖所示快速動態頻道配置背景干擾降 低程序之流程圖。 第九圖為依據本發明之無線鏈結附加快速動態頻道配置呼叫 允許控制(CAC)程序概觀。 第十a-c圖為第九圖所示快速動態頻道配置呼叫允許控制 (CAC)程序流程圖。 第十一圖為依據本發明之無線鏈結重新配置快速動態頻道配 ,呼叫允許控制(CAC)程序概觀。 ' 弟十一圖為第十一圖所示快速動態頻道配置呼叫允許控制 (CAC)程序流程圖。 第十三a-c圖為第十二圖所示無線鏈結重新配置之快速動態頻 道配置呼叫允許控制(CAC)程序之實體頻道配置程序流程圖。 【主要元件符號說明】 WTRU無線傳輸/接收單元 RAN無線存取網路 CAC呼叫允許控制 RRC無線資源控制 RAB無線存取承載 ISCP干擾k號編碼功率 TFCI傳輸格式編碼指標 C-RNC控制無線網路控制器 TDD分時雙工 CCTrCH編碼合成傳輸頻道 37The first downlink coded composite transmission channel is selected (step 〇 〇 # 次 次 次 次 WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU ( ( ( ( ( ( ( ( ( WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU WTRU The transmission channel (CCTrCH service type is obtained (step, and if the service type is immediate (four) 1314, the available available time slot in the cell is determined (step no right time slot available (step 1316)' then this flag is Failure condition = 13⁄4 storage slave transfer case (4) 1318) and program block ίίΙ (=) ϊ (ί^316) 'Selected code synthesis transfer _ 妯 ^ ^ 1 卞 () is determined (step 1322), and The data rate is required to be different ((10)1324). The calculated rate of the dragon rate is obtained by ^33 into the physical channel of the transmission channel (time slot and code). 'Shishi ^ soil solution is found if it is broken (step 1328) Step 1328 ^ Lit is discussed in more detail in the third figure above. If the resource is worthy of the dismissal (step if successful (step 133G)' then decide the current direction (additional code for the next or upper and ^^ check) Synthetic transmission channel (step to check the material code and secret transport ship, then the current side of the $ ^ ^ -,, flat code The channel is transmitted (CCTrCH) (step 1 and step 1310. If there is no additional coded composite transmission channel to be checked, whether the /, 疋, and code synthesis transmission channels have been checked (step 1336). If the upper frequency = not checked , the first uplink coded composite transmission frequency 'car (10), and the light sequence continues at step 1308. If all the above has been considered (step 1336), then the wireless transmission / receiving line transmission / reception - beta channel information The system is updated in the radio resource management material, and the silk vector is updated in the ., , , , and the spring source (the U40). The transmission/reception single S (WTRU) # The coded composite transmission channel CCTrdj is included with the latest n*2: 5th coded composite transmission channel information (for the composite transmission channel (CCTrCH) to be attached) and the downlink coded composite transmission Ιΐϊ added or modified. Touch the Lai Wei Wei code and the Jingshen channel, the coded composite transmission channel (CCTrCH) status, code synthesis ίίΪίϊ ^ ^ ^ use the channel information. The dedicated entity channel information contains the special channel Wei contains _, followed by sequence shift and cluster Type 1 Pan-coded indicator presentation and coding information table Column. Coded information channel = 3,, private entity channel identification and coded signal pair ί ί ί ί,, flat code 向 贫 包含 上 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含 包含The mark and code use real quantity (4) contains the code recognition and code use status. The configuration feed and power control information is then placed in the wireless link re-source configuration (step flag is set to mark the success code information ^ 'f pour money Thanks to the target presentation rate, minimum = pass-through transmission power 'maximum downlink transmission function number to input ίί 'table large uplink signal to interference ratio and minimum uplink: set block synthesis transmission channel is calculated (four) called = Set to select and select =, the physical butterfly flag of the channel is set to indicate the situation of the defeat. The rate of the service is determined (step ^2), and the rate of the Bayes is selected (step 1354). ). The selected data dedicated frequency k is broken and the solution is recorded if it is found (step 1358). 35 Ί—3—57271 Note that steps 1328 and 1538 are essentially the same; in non-instant service, the dedicated channel is temporary. If the resource configuration fails (step 1360)' then decide if there is an additional data rate to be checked (step 1362). If there are no other data rates to be checked, the status flag is set to indicate a failure condition (step 1318) and the program ends (step 1320). If there are other data rates to be checked (step 1362)', then the next highest data rate is selected (step 1364) and the process continues at step 1356. If the data configuration is successful (step 1360), the program continues as in step 1332 above. It should be noted that steps 1306, 1336 and 1338, either in either direction (down or up) may be performed first. As described above, the lower direction is checked in the same manner as the upper direction is checked. The upper right is preferred over the next check' then the program 1300 will fall in the same manner. Steps 13 2 8 and 1358 are channel configuration functions for calling fast dynamic channel configuration calculations; this core function is signal independent and is illustrated in the above third a and b diagrams. Although the preferred embodiment is illustrated in the Third Generation Partnership Project (3GPP) Broadband Code Division Multiple Access (W-CDMA) system using the time division duplex mode, the embodiment can be applied to any hybrid code division multiple. Access (CDMAy Time Division Multiple Access (TDMA) communication system. Additionally, certain embodiments that typically use beam splitting in a proposed frequency division duplex (FDD) mode such as 3Gppw_CDMA are applicable to a code division multiple access system. While the invention has been shown and described with respect to the embodiments of the invention, many modifications and variations can be made by those skilled in the art without departing from the scope of the invention. The first picture shows the fast dynamic channel configuration call admission control (CAC) calculus overview established by the wireless link. The second ac diagram is the fast dynamic channel configuration call admission control (CAC) calculation process established by the wireless link shown in the first figure. Fig. 1a and 2b are flow chart diagrams of the channel configuration function of the fast dynamic channel configuration call admission control (CAC) calculus shown in Fig. 36. The four figures are fast dynamic channels according to the present invention. An overview of the escape program. ^5a and 5b are flowcharts of the fast dynamic channel configuration escape procedure shown in the fourth diagram. The sixth diagram shows the fast dynamic channel configuration shown in the fifth & The first part of the flow chart of the program configuration function. The seventh figure is an overview of the background interference reduction procedure for fast dynamic channel configuration in accordance with the present invention. Figures 8a and 8b show a flow chart of the fast dynamic channel configuration background interference reduction procedure shown in Figure 7. The ninth diagram is an overview of the Fast Link Dynamic Call Configuration Call Admission Control (CAC) procedure in accordance with the present invention. The tenth a-c diagram is a flow chart of the fast dynamic channel configuration call admission control (CAC) program shown in the ninth figure. Figure 11 is a diagram of a wireless link reconfiguration fast dynamic channel allocation, call admission control (CAC) procedure in accordance with the present invention. The eleventh picture shows the fast dynamic channel configuration call admission control (CAC) program flow chart shown in Figure 11. The thirteenth a-c diagram is a flow chart of the physical channel configuration procedure of the fast dynamic channel configuration call admission control (CAC) program of the wireless link reconfiguration shown in Fig. 12. [Main component symbol description] WTRU radio transmission/reception unit RAN radio access network CAC call admission control RRC radio resource control RAB radio access bearer ISCP interference k number coding power TFCI transmission format coding index C-RNC control radio network control TDD time division duplex CCTrCH code synthesis transmission channel 37

Claims (2)

1357271 七、申請專利範圍: .種被配置用以執行快速動態 1. — 3? ffl JM1357271 VII. Patent application scope: The species is configured to perform fast dynamics 1. — 3? ffl JM 制之控制無線網路控制器(C—j^ 一集中式資料庫; 用於接收一要求訊息的裴置; 用於處理該要求訊息的裝置; 用於執行事先編碼配置之裝置,其包含: 用於自該集中式資料庫獲得—節點B量剛的裝置;以Controlled wireless network controller (C-j^ a centralized database; means for receiving a request message; means for processing the request message; means for performing a prior art code configuration, comprising: Means for obtaining from the centralized database - the amount of node B is just; 用於檢查胞元_一編碼組之可用性之裳置; 用於產生可用時間槽之可用時間槽序列之穿 之裝置編碼組至該“時間槽 用於計异各解之干擾信號編碼功率(ISCp)之裝置;以 及 解之襄置驗選祕有最低加鮮號編碼功率之解為最佳 用於執行事後編碼配置之裝置。a device for checking the availability of a cell_a code group; a device code group for generating a sequence of available time slots of available time slots to the "time slot for interfering signal coding power for different solutions (ISCp) The device; and the solution of the solution has the lowest encryption code power solution as the best device for performing post-coding configuration. 用於自該要求訊息讀取WTRU性能資訊之裝置;以及 用於自該集中式資料庫獲得編碼組之裝置,其係基於該要 求訊息所包含之一要求資料速率而獲得。 3·如申請專利範圍第1項之C-RNC,其中用於執行事先編碼配 38 1357271 置之該裝置係包含: 配置該針式資料庫中的裝置;以及 用於建立一回應訊息的裝置。 =以=3曰項:C,C ’其中該,叫允許控制係用 的該用於儲存配置魏於該集中式資料庫中 料庫ϊϊϊίΓ無線傳輸/触單元(wtru)實體於該集中式資 震置,*巾式冑料庫巾之該要求訊息· 資訊之 用於記錄實體頻道資訊於該集中式資料庫中 於3 te_RNC ’其中該°乎叫允i控制係用 、、用於二二^且1於建立—回應訊息的該褒置係包含: 用於附加功十控心訊至該回應訊息之裝置;以及 用於附加實體頻道資訊至該回應訊息之裝置。 ϋ申請專利範圍第3項之C.RNC,其中該呼叫允許" 的加’且用於儲存配置資訊於該集中式資料庫中 資訊式㈣料之該要求訊息記賴的無線鍵結 用於記錄實獅道資訊於該集巾式麵庫巾之。 於3項之c魏,其巾該呼物_係用 、…、f鏈、、,。之附加’且驗建立一回應訊息的該裝置係包含: 用於附加編碼合成傳輸頻道資訊至該回應訊息之裝置; 用於附加實體頻道資訊至該回應訊息之裝置; , 用於附加專用頻道資訊至該回應訊息之裝置; 上連時間槽干擾信號編碼功率(ISCP)ft至該回 您5札思之裝置;以及 用於附加功率控制資訊至該回應訊息之裝置。 8.如申請翻範圍第丨狀(:遞,其巾執行事先編碼配 39 T35727—1 置之該裝置係包含: 用於接收一要求訊息的裝置; 用於處理該要求訊息的裝置;以及 用於自該集中式資料庫中檢索系統資訊的裝置。 9.如申請專利範圍第8項之C-RNC,其中該呼叫允許控制係用 於無線鏈結之附加,且用於處理該要求訊息的該裝置係包含: 用於自該要求訊息讀取無線傳輸/接收單元(WTRU)量測的 裝置;以及 用於自該要求訊息檢索該無線傳輸/接收單元(WTRU)識 別、新無線鏈結識別、及新胞元識別的裝置。 10 ·如申請專利範圍第8項之C -RNC,其_該呼叫允許控制係用 於無線鏈結之附加,且用於自該集中式資料庫中檢索系統資訊 的該裝置係包含: 用於檢索新胞元之節點B量測之裝置; 用於獲得舊胞元識別之裝置; 用於讀取無線傳輸/接收單元(WTRU)編碼合成傳輸頻道 (CCTrCH)資訊與專用頻道資訊之裝置; 用於檢索WTRU性能資訊之裝置; 用於檢索該新胞元中之一可用時間槽清單之裝置; 用於檢索CCTrCHs之資料速率之裝置;以及 用於檢索該要求資料速率之一編碼組清單之裝置。 申請專利範圍第8項之C-RNC,其_該呼叫允許控制係用 =無線鏈結之重新配置,且用於處理該要求訊息的該裝置係包 含·: # s用於自該要求訊息讀取無線傳輸/接收單元(WTRU)量測之 衣置,以及 A 於自该要求訊息讀取無線傳輸7接收單元(WTRU)編碼合 ^傳輸頻道(CCMH)鱗㈣道f訊之裝置。 於ίΐίί利範圍第8項之〔驟’其令該呼叫允許控制係用 、…泉鏈、,之重聽置’且用於自該集令式資料庫中檢素系統 40 1357271 資訊的該裝置係包含: 用於檢索WTRU性能資訊之裝置; 用於自該集中式資料庫檢索節點B量測之裝置; 用於自該集中式資料庫檢索一可用時間槽清單之裝置;以 及 用於自該集中式資料庫檢.索一編碼組清單之裝置。Means for reading WTRU performance information from the request message; and means for obtaining a code group from the centralized database, based on a required data rate included in the request message. 3. The C-RNC of claim 1 of the patent application, wherein the apparatus for performing pre-coding is provided in the apparatus: the apparatus in the needle magazine is configured; and the apparatus for establishing a response message. ==3曰: C, C 'where, the allowable control system is used to store the configuration in the centralized database. Γ Γ wireless transmission / touch unit (wtru) entity in the centralized Shocking, the request information of the * towel type library towel · The information used to record the physical channel information in the centralized database in 3 te_RNC 'which is used by the control system, for the second two And the device that establishes a response message includes: means for attaching the power to the response message; and means for attaching the physical channel information to the response message. ϋC.RNC of the third application patent scope, wherein the call is allowed to be added and the wireless key used to store the configuration information in the centralized database is used for the information message (4). Record the actual lion road information in the towel-type face towel. In the 3 items of c Wei, the towel is called _ system, ..., f chain,,,. The device for adding a response message includes: means for additionally encoding the synthesized transmission channel information to the response message; means for attaching the physical channel information to the response message; , for attaching the dedicated channel information The device to the response message; the uplink time slot interference signal coding power (ISCP) ft to the device that is back to you 5; and the device for adding power control information to the response message. 8. If the application is to be turned over, the device is pre-coded with 39 T35727-1. The device comprises: means for receiving a request message; means for processing the request message; A device for retrieving system information from the centralized database. 9. The C-RNC of claim 8 wherein the call admission control system is used for attachment of a wireless link and for processing the request message. The apparatus includes: means for reading a wireless transmit/receive unit (WTRU) measurement from the request message; and for retrieving the WTRU identification, new wireless link identification from the request message And the device for identifying new cells. 10 · As C-RNC of claim 8 of the patent scope, the call admission control system is used for the attachment of the wireless link and is used to retrieve the system from the centralized database. The device of information includes: means for retrieving Node B measurements of new cells; means for obtaining old cell identification; for reading a WTRU encoded composite transmission channel (CCTrCH) News Means for utilizing dedicated channel information; means for retrieving WTRU performance information; means for retrieving a list of available time slots in the new cell; means for retrieving data rates of CCTrCHs; and for retrieving the requested data rate A device for encoding a list of groups. The C-RNC of claim 8 of the patent scope, the call admission control system uses the reconfiguration of the wireless link, and the device for processing the request message includes: # s for reading the wireless transmission/reception unit (WTRU) measurement from the request message, and A reading the wireless transmission 7 receiving unit (WTRU) coded transmission channel (CCMH) scale from the request message (4) The device of the channel is in the 8th item of the ίΐίί利 range ["the order allows the call to be used by the control system, ... the spring chain, the re-listening" and is used in the collection system from the collection database. 40 1357271 The device of the information includes: means for retrieving WTRU performance information; means for retrieving Node B measurements from the centralized repository; for retrieving a list of available time slots from the centralized repository Means; and means a list of the cable group is used for encoding from the centralized database object. 13.Hi利f圍第1項之C-RNC,其中該呼叫^許控制係用 於热線鏈結之重魏置,朋於執行事魏碼配置之該裝置係 勿会* =於更新絲中式資料庫巾無線傳輪/接收單元(WTRU)資 訊之裝置,以及 用於建立一回應訊息的裝置。 M.如:請範圍第13項之〔脈,財驗更新之該裝置 係包3用於記錄新的編碼合成傳輸頻道(CCTrCH)資訊及相關 貫體頻道配置資訊於該集中式資料庫中的裝置。、 ===第13 ™,州於建立-回應訊 用於附加功率控制資訊至該回應訊息之裝置;以及 用於附加實體頻道配置資訊至該回應訊息之裝置。 16 ·—種被配置用以執行快速動態頻道配置(F _dca)呼叫允許控 制之控制無線網路控制器(C-RNC),該C-RNC包含: 工 一無線資源控制(RRC)共享胞元資料庫; 一操作與維護(OAM)RRM列表資料庫; 一 RRM胞元資料庫; 一 RRM無線傳輸/接收單元(WTRU)資料庫;以及 吹”用於執行事先編碼配置之裝置,其係利用該RRC共享胞元 資料庫、該OAM RRM列表資料庫與該RRM胞元資料庫而執 行。 17·如申請專利範圍第16項之C-RNC,其更包含: 用於執行事後編碼配置之裝置,其係利用該RRM胞元資 41 ΤΪ5727Τ 料庫與該RRMWTRU資料庫而執行。 18.如申請專利範圍第16項之C-RNC,其更包含: 用於執行編碼配置之裝置,其係利用該RRM胞元資料庫 與該RRMWTRU資料庫而執行。 4213. Hi-F is the C-RNC of the first item, wherein the call control is used for the heavy-duty connection of the hot-wire chain, and the device that performs the Wei-code configuration is not required to be updated. A device for wireless data transfer/receiving unit (WTRU) information, and a device for establishing a response message. M. For example, please refer to the scope of the 13th item, the device update package 3 is used to record the new coded composite transmission channel (CCTrCH) information and related channel channel configuration information in the centralized database. Device. , === 13th TM, state-created-response device for attaching power control information to the response message; and means for attaching physical channel configuration information to the response message. a control radio network controller (C-RNC) configured to perform fast dynamic channel configuration (F_dca) call admission control, the C-RNC comprising: a radio resource control (RRC) shared cell a database; an operation and maintenance (OAM) RRM list database; an RRM cell database; an RRM wireless transmission/receiving unit (WTRU) database; and a "device for performing prior encoding configuration, which utilizes The RRC shared cell database, the OAM RRM list database, and the RRM cell database are executed. 17. The C-RNC of claim 16 further includes: means for performing post-coding configuration The RRM cell library is executed with the RRM WTRU database and the RRM WTRU database. 18. The C-RNC of claim 16 further includes: means for performing code configuration, which utilizes The RRM cell database is executed with the RRM WTRU database.
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US45092703P 2003-02-27 2003-02-27
US45079303P 2003-02-27 2003-02-27
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US46389303P 2003-04-17 2003-04-17
US10/744,800 US7107060B2 (en) 2003-02-27 2003-12-23 Method of optimizing an implementation of fast-dynamic channel allocation call admission control in radio resource management
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US10/750,135 US7110771B2 (en) 2003-04-17 2003-12-31 Method for implementing fast-dynamic channel allocation call admission control for radio link reconfiguration in radio resource management

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